Update CNotations

This makes it easier to add support for more kinds of addcarryx, etc,
and also add `: expr_scope` to work around changes from
https://github.com/coq/coq/pull/873

1 files changed, 4566 insertions, 4575 deletions

diff --git a/src/Compilers/Z/CNotations.v b/src/Compilers/Z/CNotations.v
index 33535c01d..df49cf7e0 100644
--- a/src/Compilers/Z/CNotations.v
+++ b/src/Compilers/Z/CNotations.v
@@ -42,11 +42,20 @@ Reserved Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c_in , a , b , & out )
 Reserved Notation "'addcarryx_u32' ( c , a , b )" (format "'addcarryx_u32' ( c ,  a ,  b )").
 Reserved Notation "'addcarryx_u64' ( c , a , b )" (format "'addcarryx_u64' ( c ,  a ,  b )").
 Reserved Notation "'addcarryx_u128' ( c , a , b )" (format "'addcarryx_u128' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u51' ( c , a , b )" (format "'addcarryx_u51' ( c ,  a ,  b )"). (* temporary for testing *)
+Reserved Notation "'addcarryx_u51' ( c , a , b )" (format "'addcarryx_u51' ( c ,  a ,  b )").
 Reserved Notation "'subborrow_u32' ( c , a , b )" (format "'subborrow_u32' ( c ,  a ,  b )").
 Reserved Notation "'subborrow_u64' ( c , a , b )" (format "'subborrow_u64' ( c ,  a ,  b )").
 Reserved Notation "'subborrow_u128' ( c , a , b )" (format "'subborrow_u128' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u51' ( c , a , b )" (format "'subborrow_u51' ( c ,  a ,  b )"). (* temporary for testing *)
+Reserved Notation "'subborrow_u51' ( c , a , b )" (format "'subborrow_u51' ( c ,  a ,  b )").
+Reserved Notation "'addcarryx_u32ℤ' ( c , a , b )" (format "'addcarryx_u32ℤ' ( c ,  a ,  b )").
+Reserved Notation "'addcarryx_u64ℤ' ( c , a , b )" (format "'addcarryx_u64ℤ' ( c ,  a ,  b )").
+Reserved Notation "'addcarryx_u128ℤ' ( c , a , b )" (format "'addcarryx_u128ℤ' ( c ,  a ,  b )").
+Reserved Notation "'addcarryx_u51ℤ' ( c , a , b )" (format "'addcarryx_u51ℤ' ( c ,  a ,  b )").
+Reserved Notation "'subborrow_u32ℤ' ( c , a , b )" (format "'subborrow_u32ℤ' ( c ,  a ,  b )").
+Reserved Notation "'subborrow_u64ℤ' ( c , a , b )" (format "'subborrow_u64ℤ' ( c ,  a ,  b )").
+Reserved Notation "'subborrow_u128ℤ' ( c , a , b )" (format "'subborrow_u128ℤ' ( c ,  a ,  b )").
+Reserved Notation "'subborrow_u51ℤ' ( c , a , b )" (format "'subborrow_u51ℤ' ( c ,  a ,  b )").
+
 Reserved Notation "'mulx_u32' ( a , b )" (format "'mulx_u32' ( a ,  b )").
 Reserved Notation "'mulx_u64' ( a , b )" (format "'mulx_u64' ( a ,  b )").
 Reserved Notation "'mulx_u128' ( a , b )" (format "'mulx_u128' ( a ,  b )").
@@ -75,14 +84,6 @@ Reserved Notation "'(uint8_t)' 'mulx_u32_out_u1' ( a , b )" (format "'(uint8_t)'
 Reserved Notation "'(uint8_t)' 'mulx_u64_out_u1' ( a , b )" (format "'(uint8_t)' 'mulx_u64_out_u1' ( a ,  b )").
 Reserved Notation "'(uint8_t)' 'mulx_u128_out_u1' ( a , b )" (format "'(uint8_t)' 'mulx_u128_out_u1' ( a ,  b )").
 
-Reserved Notation "'addcarryx_u32ℤ' ( c , a , b )" (format "'addcarryx_u32ℤ' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u64ℤ' ( c , a , b )" (format "'addcarryx_u64ℤ' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u128ℤ' ( c , a , b )" (format "'addcarryx_u128ℤ' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u51ℤ' ( c , a , b )" (format "'addcarryx_u51ℤ' ( c ,  a ,  b )"). (* temporary for testing *)
-Reserved Notation "'subborrow_u32ℤ' ( c , a , b )" (format "'subborrow_u32ℤ' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u64ℤ' ( c , a , b )" (format "'subborrow_u64ℤ' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u128ℤ' ( c , a , b )" (format "'subborrow_u128ℤ' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u51ℤ' ( c , a , b )" (format "'subborrow_u51ℤ' ( c ,  a ,  b )"). (* temporary for testing *)
 Reserved Notation "'mulx_u32ℤ' ( a , b )" (format "'mulx_u32ℤ' ( a ,  b )").
 Reserved Notation "'mulx_u64ℤ' ( a , b )" (format "'mulx_u64ℤ' ( a ,  b )").
 Reserved Notation "'mulx_u128ℤ' ( a , b )" (format "'mulx_u128ℤ' ( a ,  b )").
@@ -99,6 +100,7 @@ Reserved Notation "'cmovznzℤ' ( v , a , b )" (format "'cmovznzℤ' ( v ,  a ,
 import math
 
 PARENTHESIZED = True
+ADD_CARRY_SUB_BORROW_SIZES = (32, 64, 128, 51)
 
 print(r"""Require Export Crypto.Compilers.Syntax.
 Require Import Crypto.Compilers.Z.Syntax.
@@ -140,15 +142,12 @@ Reserved Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c_in , a , b , & out )
  (at level 200, REST at level 200, only printing format "T0  out ; '//' T1  c_out  =  '_addcarryx_u32' ( c_in ,  a ,  b ,  & out ) ; '//' REST").
 Reserved Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c_in , a , b , & out ) ; REST"
  (at level 200, REST at level 200, only printing format "T0  out ; '//' T1  c_out  =  '_addcarryx_u64' ( c_in ,  a ,  b ,  & out ) ; '//' REST").
->> *""" + r""")
-Reserved Notation "'addcarryx_u32' ( c , a , b )" (format "'addcarryx_u32' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u64' ( c , a , b )" (format "'addcarryx_u64' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u128' ( c , a , b )" (format "'addcarryx_u128' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u51' ( c , a , b )" (format "'addcarryx_u51' ( c ,  a ,  b )"). (""" + r"""* temporary for testing *""" + r""")
-Reserved Notation "'subborrow_u32' ( c , a , b )" (format "'subborrow_u32' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u64' ( c , a , b )" (format "'subborrow_u64' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u128' ( c , a , b )" (format "'subborrow_u128' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u51' ( c , a , b )" (format "'subborrow_u51' ( c ,  a ,  b )"). (""" + r"""* temporary for testing *""" + r""")
+>> *""" + r""")""")
+for postfix in ('', 'ℤ'):
+    for opn in ('addcarryx', 'subborrow'):
+        for sz in ADD_CARRY_SUB_BORROW_SIZES:
+            print(r"""Reserved Notation "'%s_u%d%s' ( c , a , b )" (format "'%s_u%d%s' ( c ,  a ,  b )").""" % (opn, sz, postfix, opn, sz, postfix))
+print(r"""
 Reserved Notation "'mulx_u32' ( a , b )" (format "'mulx_u32' ( a ,  b )").
 Reserved Notation "'mulx_u64' ( a , b )" (format "'mulx_u64' ( a ,  b )").
 Reserved Notation "'mulx_u128' ( a , b )" (format "'mulx_u128' ( a ,  b )").
@@ -177,14 +176,6 @@ Reserved Notation "'(uint8_t)' 'mulx_u32_out_u1' ( a , b )" (format "'(uint8_t)'
 Reserved Notation "'(uint8_t)' 'mulx_u64_out_u1' ( a , b )" (format "'(uint8_t)' 'mulx_u64_out_u1' ( a ,  b )").
 Reserved Notation "'(uint8_t)' 'mulx_u128_out_u1' ( a , b )" (format "'(uint8_t)' 'mulx_u128_out_u1' ( a ,  b )").
 
-Reserved Notation "'addcarryx_u32ℤ' ( c , a , b )" (format "'addcarryx_u32ℤ' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u64ℤ' ( c , a , b )" (format "'addcarryx_u64ℤ' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u128ℤ' ( c , a , b )" (format "'addcarryx_u128ℤ' ( c ,  a ,  b )").
-Reserved Notation "'addcarryx_u51ℤ' ( c , a , b )" (format "'addcarryx_u51ℤ' ( c ,  a ,  b )"). (""" + r"""* temporary for testing *""" + r""")
-Reserved Notation "'subborrow_u32ℤ' ( c , a , b )" (format "'subborrow_u32ℤ' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u64ℤ' ( c , a , b )" (format "'subborrow_u64ℤ' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u128ℤ' ( c , a , b )" (format "'subborrow_u128ℤ' ( c ,  a ,  b )").
-Reserved Notation "'subborrow_u51ℤ' ( c , a , b )" (format "'subborrow_u51ℤ' ( c ,  a ,  b )"). (""" + r"""* temporary for testing *""" + r""")
 Reserved Notation "'mulx_u32ℤ' ( a , b )" (format "'mulx_u32ℤ' ( a ,  b )").
 Reserved Notation "'mulx_u64ℤ' ( a , b )" (format "'mulx_u64ℤ' ( a ,  b )").
 Reserved Notation "'mulx_u128ℤ' ( a , b )" (format "'mulx_u128ℤ' ( a ,  b )").
@@ -208,7 +199,7 @@ def log2_up(x):
     return int(math.ceil(math.log(x, 2)))
 types = ('bool', 'uint8_t', 'uint8_t', 'uint8_t', 'uint16_t', 'uint32_t', 'uint64_t', 'uint128_t', 'uint256_t')
 for lgwordsz in range(0, len(types)):
-    print('Notation "\'%s\'" := (Tbase (TWord %d)).' % (types[lgwordsz], lgwordsz))
+    print('Notation "\'%s\'" := (Tbase (TWord %d)) : expr_scope.' % (types[lgwordsz], lgwordsz))
 print('Notation ℤ := (Tbase TZ).')
 print('')
 cast_pat = "'(%s)' %s"
@@ -232,9 +223,9 @@ def print_notation_string(xisvar, yisvar, opn, op, arg_tuple, lvl=None, xsz=None
     if (OPEN + CLOSE) != '':
         modifiers.append('format "%s%s  %s  %s%s"' % (OPEN, x, opn, y, CLOSE))
     if len(modifiers) > 0:
-        ret = '%s (%s).' % (ret, ', '.join(modifiers))
+        ret = '%s (%s) : expr_scope.' % (ret, ', '.join(modifiers))
     else:
-        ret = '%s.' % (ret,)
+        ret = '%s : expr_scope.' % (ret,)
     print(ret)
 
 for opn, op, lvl in (('*', 'Mul', 40), ('+', 'Add', 50), ('-', 'Sub', 50)):
@@ -293,7 +284,7 @@ for opn, op, lvl in (('>>', 'Shr', 30),):
             for v2 in (False, True):
                 lhs = ('x' if not v1 else '(Var x)')
                 rhs = ('y' if not v2 else '(Var y)')
-                print('Notation "\'(%s)\' ( x %s y )" := (Op (%s (TWord _) (TWord _) (TWord %d)) (Pair %s %s)) (at level %d).'
+                print('Notation "\'(%s)\' ( x %s y )" := (Op (%s (TWord _) (TWord _) (TWord %d)) (Pair %s %s)) (at level %d) : expr_scope.'
                       % (types[lgwordsz], opn, op, lgwordsz, lhs, rhs, lvl))
                 print_notation_string(v1, v2, opn, op, (TWord(lgwordsz), TWord(_), TWord(lgwordsz)))
 for v0 in (False, True):
@@ -302,7 +293,7 @@ for v0 in (False, True):
             tes = ('v' if not v0 else '(Var v)')
             lhs = ('x' if not v1 else '(Var x)')
             rhs = ('y' if not v2 else '(Var y)')
-            print('Notation "\'cmovznz32\' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair %s %s) %s)).' % (tes, lhs, rhs))
+            print('Notation "\'cmovznz32\' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair %s %s) %s)) : expr_scope.' % (tes, lhs, rhs))
 for (wordsz, cmovsz) in ((16,'32'), (32,'64'), (64,'128'), (128,'ℤ')):
     lgwordsz = log2_up(wordsz)
     for lgwordsz_out in range(0, lgwordsz+2): # + 2 so that we get one instance of lgwordsz_out > lgwordsz
@@ -315,12 +306,12 @@ for (wordsz, cmovsz) in ((16,'32'), (32,'64'), (64,'128'), (128,'ℤ')):
                     TWordSz = TWord(at_least_S_pattern(lgwordsz+1)) # + 1, because we need strictly not equal
                     TWordSz_out = TWord(at_least_S_pattern(lgwordsz_out))
                     if lgwordsz_out > lgwordsz:
-                        pat = 'Notation "\'cmovznz%s\' ( v , x , y )" := (Op (Zselect %s %s %s %s) (Pair (Pair %s %s) %s)).'
+                        pat = 'Notation "\'cmovznz%s\' ( v , x , y )" := (Op (Zselect %s %s %s %s) (Pair (Pair %s %s) %s)) : expr_scope.'
                         print(pat % (cmovsz, TWordSz, TWord(_), TWord(_), TWordSz_out, tes, lhs, rhs))
                         print(pat % (cmovsz, TWord(_), TWordSz, TWord(_), TWordSz_out, tes, lhs, rhs))
                         print(pat % (cmovsz, TWord(_), TWord(_), TWordSz, TWordSz_out, tes, lhs, rhs))
                     else:
-                        pat = 'Notation "\'(%s)\' \'cmovznz%s\' ( v , x , y )" := (Op (Zselect %s %s %s %s) (Pair (Pair %s %s) %s)) (format "\'(%s)\' \'cmovznz%s\' ( v ,  x ,  y )").'
+                        pat = 'Notation "\'(%s)\' \'cmovznz%s\' ( v , x , y )" := (Op (Zselect %s %s %s %s) (Pair (Pair %s %s) %s)) (format "\'(%s)\' \'cmovznz%s\' ( v ,  x ,  y )") : expr_scope.'
                         print(pat % (types[lgwordsz_out], cmovsz, TWordSz, TWord(_), TWord(_), TWordSz_out, tes, lhs, rhs, types[lgwordsz_out], cmovsz))
                         print(pat % (types[lgwordsz_out], cmovsz, TWord(_), TWordSz, TWord(_), TWordSz_out, tes, lhs, rhs, types[lgwordsz_out], cmovsz))
                         print(pat % (types[lgwordsz_out], cmovsz, TWord(_), TWord(_), TWordSz, TWordSz_out, tes, lhs, rhs, types[lgwordsz_out], cmovsz))
@@ -330,12 +321,12 @@ for v0 in (False, True):
             tes = ('v' if not v0 else '(Var v)')
             lhs = ('x' if not v1 else '(Var x)')
             rhs = ('y' if not v2 else '(Var y)')
-            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair %s %s) %s)).' % (tes, lhs, rhs))
-            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair %s %s) %s)).' % (tes, lhs, rhs))
-            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair %s %s) %s)).' % (tes, lhs, rhs))
-            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair %s %s) %s)).' % (tes, lhs, rhs))
+            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair %s %s) %s)) : expr_scope.' % (tes, lhs, rhs))
+            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair %s %s) %s)) : expr_scope.' % (tes, lhs, rhs))
+            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair %s %s) %s)) : expr_scope.' % (tes, lhs, rhs))
+            print('Notation "\'cmovznzℤ\' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair %s %s) %s)) : expr_scope.' % (tes, lhs, rhs))
 for opn, op in (('addcarryx', 'AddWithGetCarry'), ('subborrow', 'SubWithGetBorrow')):
-    for wordsz in (32, 64, 128, 51):
+    for wordsz in ADD_CARRY_SUB_BORROW_SIZES:
         lgwordsz = log2_up(wordsz)
         for v0 in (False, True):
             for v1 in (False, True):
@@ -344,8 +335,8 @@ for opn, op in (('addcarryx', 'AddWithGetCarry'), ('subborrow', 'SubWithGetBorro
                     a = ('a' if not v1 else '(Var a)')
                     b = ('b' if not v2 else '(Var b)')
                     for lgwordsz_small in (0, 3):
-                        for notation_string in ('Notation "\'%s_u%d\' ( c , a , b )" := (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair (Pair %s %s) %s)).',
-                                                ('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%d\' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair (Pair %s %s) %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')')):
+                        for notation_string in ('Notation "\'%s_u%d\' ( c , a , b )" := (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair (Pair %s %s) %s)) : expr_scope.',
+                                                ('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%d\' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair (Pair %s %s) %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')')):
                             print(notation_string % (opn, wordsz, op, wordsz, lgwordsz_small, lgwordsz, lgwordsz, lgwordsz, lgwordsz_small, c, a, b))
                             print(notation_string % (opn, wordsz, op, wordsz, lgwordsz_small, lgwordsz_small, lgwordsz, lgwordsz, lgwordsz_small, c, a, b))
                             print(notation_string % (opn, wordsz, op, wordsz, lgwordsz_small, lgwordsz, lgwordsz_small, lgwordsz, lgwordsz_small, c, a, b))
@@ -358,8 +349,8 @@ for opn, op in (('mulx', 'MulSplit'),):
                 a = ('a' if not v0 else '(Var a)')
                 b = ('b' if not v1 else '(Var b)')
                 for lgwordsz_small in (0, 3):
-                    for notation_string in ('Notation "%s\'%s_u%d%s\' ( a , b )" := (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)).',
-                                            ('(' + '*Notation "T0 out ; T1 c_out = %s\'_%s_u%d%s\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')')):
+                    for notation_string in ('Notation "%s\'%s_u%d%s\' ( a , b )" := (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)) : expr_scope.',
+                                            ('(' + '*Notation "T0 out ; T1 c_out = %s\'_%s_u%d%s\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')')):
                         for arg1 in (lgwordsz_small, lgwordsz):
                             for arg2 in (lgwordsz_small, lgwordsz):
                                 for arg3 in (lgwordsz_small, lgwordsz):
@@ -374,10 +365,10 @@ for opn, op in (('mulx', 'MulSplit'),):
             for v1 in (False, True):
                 a = ('a' if not v0 else '(Var a)')
                 b = ('b' if not v1 else '(Var b)')
-                print(('Notation "\'%s_u%d\' ( a , b )" := (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)).') % (opn, wordsz, op, wordsz, lgwordsz, lgwordsz, lgwordsz, lgwordsz, a, b))
-                print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%d\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')') % (opn, wordsz, op, wordsz, lgwordsz, lgwordsz, lgwordsz, lgwordsz, a, b))
+                print(('Notation "\'%s_u%d\' ( a , b )" := (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)) : expr_scope.') % (opn, wordsz, op, wordsz, lgwordsz, lgwordsz, lgwordsz, lgwordsz, a, b))
+                print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%d\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d (TWord %d) (TWord %d) (TWord %d) (TWord %d)) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')') % (opn, wordsz, op, wordsz, lgwordsz, lgwordsz, lgwordsz, lgwordsz, a, b))
 for opn, op in (('addcarryx', 'AddWithGetCarry'), ('subborrow', 'SubWithGetBorrow')):
-    for wordsz in (32, 64, 128, 51):
+    for wordsz in ADD_CARRY_SUB_BORROW_SIZES:
         lgwordsz = log2_up(wordsz)
         for v0 in (False, True):
             for v1 in (False, True):
@@ -385,10 +376,10 @@ for opn, op in (('addcarryx', 'AddWithGetCarry'), ('subborrow', 'SubWithGetBorro
                     c = ('c' if not v0 else '(Var c)')
                     a = ('a' if not v1 else '(Var a)')
                     b = ('b' if not v2 else '(Var b)')
-                    print(('Notation "\'%s_u%dℤ\' ( c , a , b )" := (Op (%s %d _ _ _ _ TZ) (Pair (Pair %s %s) %s)).') % (opn, wordsz, op, wordsz, c, a, b))
-                    print(('Notation "\'%s_u%dℤ\' ( c , a , b )" := (Op (%s %d _ _ _ TZ _) (Pair (Pair %s %s) %s)).') % (opn, wordsz, op, wordsz, c, a, b))
-                    print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ _ _ TZ) (Pair (Pair %s %s) %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')') % (opn, wordsz, op, wordsz, c, a, b))
-                    print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ _ TZ _) (Pair (Pair %s %s) %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')') % (opn, wordsz, op, wordsz, c, a, b))
+                    print(('Notation "\'%s_u%dℤ\' ( c , a , b )" := (Op (%s %d _ _ _ _ TZ) (Pair (Pair %s %s) %s)) : expr_scope.') % (opn, wordsz, op, wordsz, c, a, b))
+                    print(('Notation "\'%s_u%dℤ\' ( c , a , b )" := (Op (%s %d _ _ _ TZ _) (Pair (Pair %s %s) %s)) : expr_scope.') % (opn, wordsz, op, wordsz, c, a, b))
+                    print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ _ _ TZ) (Pair (Pair %s %s) %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')') % (opn, wordsz, op, wordsz, c, a, b))
+                    print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ _ TZ _) (Pair (Pair %s %s) %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')') % (opn, wordsz, op, wordsz, c, a, b))
 for opn, op in (('mulx', 'MulSplit'),):
     for wordsz in (32, 64, 128, 51):
         lgwordsz = log2_up(wordsz)
@@ -396,4536 +387,4536 @@ for opn, op in (('mulx', 'MulSplit'),):
             for v1 in (False, True):
                 a = ('a' if not v0 else '(Var a)')
                 b = ('b' if not v1 else '(Var b)')
-                print(('Notation "\'%s_u%dℤ\' ( a , b )" := (Op (%s %d _ _ _ TZ) (Pair %s %s)).') % (opn, wordsz, op, wordsz, a, b))
-                print(('Notation "\'%s_u%dℤ\' ( a , b )" := (Op (%s %d _ _ TZ _) (Pair %s %s)).') % (opn, wordsz, op, wordsz, a, b))
-                print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ _ TZ) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')') % (opn, wordsz, op, wordsz, a, b))
-                print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ TZ _) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)).*' + ')') % (opn, wordsz, op, wordsz, a, b))
+                print(('Notation "\'%s_u%dℤ\' ( a , b )" := (Op (%s %d _ _ _ TZ) (Pair %s %s)) : expr_scope.') % (opn, wordsz, op, wordsz, a, b))
+                print(('Notation "\'%s_u%dℤ\' ( a , b )" := (Op (%s %d _ _ TZ _) (Pair %s %s)) : expr_scope.') % (opn, wordsz, op, wordsz, a, b))
+                print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ _ TZ) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')') % (opn, wordsz, op, wordsz, a, b))
+                print(('(' + '*Notation "T0 out ; T1 c_out = \'_%s_u%dℤ\' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (%s %d _ _ TZ _) (Pair %s %s)) (fun \'((out, c_out)%%core) => REST)) : expr_scope.*' + ')') % (opn, wordsz, op, wordsz, a, b))
 print('Notation Return x := (Var x).')
 print('Notation C_like := (Expr base_type op _).')
 
 >> *)
-Notation "'bool'" := (Tbase (TWord 0)).
-Notation "'uint8_t'" := (Tbase (TWord 1)).
-Notation "'uint8_t'" := (Tbase (TWord 2)).
-Notation "'uint8_t'" := (Tbase (TWord 3)).
-Notation "'uint16_t'" := (Tbase (TWord 4)).
-Notation "'uint32_t'" := (Tbase (TWord 5)).
-Notation "'uint64_t'" := (Tbase (TWord 6)).
-Notation "'uint128_t'" := (Tbase (TWord 7)).
-Notation "'uint256_t'" := (Tbase (TWord 8)).
+Notation "'bool'" := (Tbase (TWord 0)) : expr_scope.
+Notation "'uint8_t'" := (Tbase (TWord 1)) : expr_scope.
+Notation "'uint8_t'" := (Tbase (TWord 2)) : expr_scope.
+Notation "'uint8_t'" := (Tbase (TWord 3)) : expr_scope.
+Notation "'uint16_t'" := (Tbase (TWord 4)) : expr_scope.
+Notation "'uint32_t'" := (Tbase (TWord 5)) : expr_scope.
+Notation "'uint64_t'" := (Tbase (TWord 6)) : expr_scope.
+Notation "'uint128_t'" := (Tbase (TWord 7)) : expr_scope.
+Notation "'uint256_t'" := (Tbase (TWord 8)) : expr_scope.
 Notation ℤ := (Tbase TZ).
 
-Notation "( x * y )" := (Op (Mul _ _ _) (Pair x y)) (format "( x  *  y )").
-Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair x y)) (at level 40, format "( x  *ℤ  y )").
-Notation "( x * y )" := (Op (Mul _ _ _) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair x (Var y))) (at level 40, format "( x  *ℤ  y )").
-Notation "( x * y )" := (Op (Mul _ _ _) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair (Var x) y)) (at level 40, format "( x  *ℤ  y )").
-Notation "( x * y )" := (Op (Mul _ _ _) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair (Var x) (Var y))) (at level 40, format "( x  *ℤ  y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )").
-Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  *  y )").
-Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  *  y )").
-Notation "( x + y )" := (Op (Add _ _ _) (Pair x y)) (format "( x  +  y )").
-Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair x y)) (at level 50, format "( x  +ℤ  y )").
-Notation "( x + y )" := (Op (Add _ _ _) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair x (Var y))) (at level 50, format "( x  +ℤ  y )").
-Notation "( x + y )" := (Op (Add _ _ _) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair (Var x) y)) (at level 50, format "( x  +ℤ  y )").
-Notation "( x + y )" := (Op (Add _ _ _) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair (Var x) (Var y))) (at level 50, format "( x  +ℤ  y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )").
-Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  +  y )").
-Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  +  y )").
-Notation "( x - y )" := (Op (Sub _ _ _) (Pair x y)) (format "( x  -  y )").
-Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair x y)) (at level 50, format "( x  -ℤ  y )").
-Notation "( x - y )" := (Op (Sub _ _ _) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair x (Var y))) (at level 50, format "( x  -ℤ  y )").
-Notation "( x - y )" := (Op (Sub _ _ _) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair (Var x) y)) (at level 50, format "( x  -ℤ  y )").
-Notation "( x - y )" := (Op (Sub _ _ _) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair (Var x) (Var y))) (at level 50, format "( x  -ℤ  y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )").
-Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  -  y )").
-Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  -  y )").
-Notation "( x & y )" := (Op (Land _ _ _) (Pair x y)) (format "( x  &  y )").
-Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair x y)) (at level 40, format "( x  &ℤ  y )").
-Notation "( x & y )" := (Op (Land _ _ _) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair x (Var y))) (at level 40, format "( x  &ℤ  y )").
-Notation "( x & y )" := (Op (Land _ _ _) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair (Var x) y)) (at level 40, format "( x  &ℤ  y )").
-Notation "( x & y )" := (Op (Land _ _ _) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair (Var x) (Var y))) (at level 40, format "( x  &ℤ  y )").
-Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )").
-Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )").
-Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )").
-Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )").
-Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(bool)' y )").
-Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 40, x at level 9, format "( '(bool)' x  &  y )").
-Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(bool)' y )").
-Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(bool)' x  &  y )").
-Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(bool)' y )").
-Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(bool)' x  &  y )").
-Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(bool)' y )").
-Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(bool)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )").
-Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )").
-Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )").
-Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )").
-Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )").
-Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )").
-Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )").
-Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )").
-Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )").
-Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )").
-Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )").
-Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )").
-Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )").
-Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )").
-Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )").
-Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )").
-Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )").
-Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )").
-Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )").
-Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )").
-Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  &  y )").
-Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  &  y )").
-Notation "( x | y )" := (Op (Lor _ _ _) (Pair x y)) (format "( x  |  y )").
-Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair x y)) (at level 45, format "( x  |ℤ  y )").
-Notation "( x | y )" := (Op (Lor _ _ _) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair x (Var y))) (at level 45, format "( x  |ℤ  y )").
-Notation "( x | y )" := (Op (Lor _ _ _) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair (Var x) y)) (at level 45, format "( x  |ℤ  y )").
-Notation "( x | y )" := (Op (Lor _ _ _) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair (Var x) (Var y))) (at level 45, format "( x  |ℤ  y )").
-Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )").
-Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )").
-Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )").
-Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )").
-Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(bool)' y )").
-Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 45, x at level 9, format "( '(bool)' x  |  y )").
-Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(bool)' y )").
-Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(bool)' x  |  y )").
-Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(bool)' y )").
-Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(bool)' x  |  y )").
-Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(bool)' y )").
-Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(bool)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )").
-Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )").
-Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )").
-Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )").
-Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )").
-Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )").
-Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )").
-Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )").
-Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )").
-Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )").
-Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )").
-Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )").
-Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )").
-Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )").
-Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )").
-Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )").
-Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )").
-Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )").
-Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )").
-Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )").
-Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )").
-Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )").
-Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )").
-Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )").
-Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )").
-Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )").
-Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  |  y )").
-Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  |  y )").
-Notation "( x << y )" := (Op (Shl _ _ _) (Pair x y)) (format "( x  <<  y )").
-Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair x y)) (at level 30, format "( x  <<ℤ  y )").
-Notation "( x << y )" := (Op (Shl _ _ _) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair x (Var y))) (at level 30, format "( x  <<ℤ  y )").
-Notation "( x << y )" := (Op (Shl _ _ _) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair (Var x) y)) (at level 30, format "( x  <<ℤ  y )").
-Notation "( x << y )" := (Op (Shl _ _ _) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair (Var x) (Var y))) (at level 30, format "( x  <<ℤ  y )").
-Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 30, format "( '(bool)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 30, format "( '(bool)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 30, format "( '(bool)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 30, format "( '(bool)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 30, format "( '(uint16_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 30, format "( '(uint16_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 30, format "( '(uint16_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint16_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 30, format "( '(uint32_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 30, format "( '(uint32_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 30, format "( '(uint32_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint32_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 30, format "( '(uint64_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 30, format "( '(uint64_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 30, format "( '(uint64_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint64_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 30, format "( '(uint128_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 30, format "( '(uint128_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 30, format "( '(uint128_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint128_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 30, format "( '(uint256_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  <<  y )").
-Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 30, format "( '(uint256_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  <<  y )").
-Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 30, format "( '(uint256_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  <<  y )").
-Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint256_t)' x  <<  y )").
-Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  <<  y )").
-Notation "( x >> y )" := (Op (Shr _ _ _) (Pair x y)) (format "( x  >>  y )").
-Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair x y)) (at level 30, format "( x  >>ℤ  y )").
-Notation "( x >> y )" := (Op (Shr _ _ _) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair x (Var y))) (at level 30, format "( x  >>ℤ  y )").
-Notation "( x >> y )" := (Op (Shr _ _ _) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair (Var x) y)) (at level 30, format "( x  >>ℤ  y )").
-Notation "( x >> y )" := (Op (Shr _ _ _) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair (Var x) (Var y))) (at level 30, format "( x  >>ℤ  y )").
-Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  >>  y )").
-Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  >>  y )").
-Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  >>  y )").
-Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 30).
-Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  >>  y )").
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )").
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )").
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )").
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )").
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) x) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) x) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) (Var x)) y)).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) (Var x)) (Var y))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))).
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) b)).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))).
-Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair a b)).
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair a (Var b))).
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) b)).
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) (Var b))).
-Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair a b)).
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair a (Var b))).
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) b)).
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) (Var b))).
-Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair a b)).
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair a (Var b))).
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) b)).
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) (Var b))).
-Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair a b)).
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair a b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair a (Var b))).
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair a (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) b)).
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) b)).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)).*)
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) (Var b))).
-Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) (Var b))).
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
-(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)).*)
+Notation "( x * y )" := (Op (Mul _ _ _) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair x y)) (at level 40, format "( x  *ℤ  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul _ _ _) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair x (Var y))) (at level 40, format "( x  *ℤ  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul _ _ _) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair (Var x) y)) (at level 40, format "( x  *ℤ  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul _ _ _) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x *ℤ y )" := (Op (Mul _ _ TZ) (Pair (Var x) (Var y))) (at level 40, format "( x  *ℤ  y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * '(bool)' y )" := (Op (Mul (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  *  '(bool)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(bool)' y )" := (Op (Mul (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x * y )" := (Op (Mul (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(bool)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * '(uint8_t)' y )" := (Op (Mul (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint8_t)' y )" := (Op (Mul (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x * y )" := (Op (Mul (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * '(uint16_t)' y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint16_t)' y )" := (Op (Mul (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x * y )" := (Op (Mul (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * '(uint32_t)' y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint32_t)' y )" := (Op (Mul (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * '(uint64_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint64_t)' y )" := (Op (Mul (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * '(uint128_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint128_t)' y )" := (Op (Mul (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * '(uint256_t)' y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * '(uint256_t)' y )" := (Op (Mul (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  *  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x * y )" := (Op (Mul (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  *  y )") : expr_scope.
+Notation "( x * y )" := (Op (Mul (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  *  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add _ _ _) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair x y)) (at level 50, format "( x  +ℤ  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add _ _ _) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair x (Var y))) (at level 50, format "( x  +ℤ  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add _ _ _) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair (Var x) y)) (at level 50, format "( x  +ℤ  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add _ _ _) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x +ℤ y )" := (Op (Add _ _ TZ) (Pair (Var x) (Var y))) (at level 50, format "( x  +ℤ  y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + '(bool)' y )" := (Op (Add (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  +  '(bool)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(bool)' y )" := (Op (Add (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x + y )" := (Op (Add (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + '(uint8_t)' y )" := (Op (Add (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint8_t)' y )" := (Op (Add (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x + y )" := (Op (Add (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + '(uint16_t)' y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint16_t)' y )" := (Op (Add (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x + y )" := (Op (Add (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + '(uint32_t)' y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint32_t)' y )" := (Op (Add (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + '(uint64_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint64_t)' y )" := (Op (Add (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + '(uint128_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint128_t)' y )" := (Op (Add (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + '(uint256_t)' y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + '(uint256_t)' y )" := (Op (Add (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  +  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x + y )" := (Op (Add (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  +  y )") : expr_scope.
+Notation "( x + y )" := (Op (Add (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  +  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub _ _ _) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair x y)) (at level 50, format "( x  -ℤ  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub _ _ _) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair x (Var y))) (at level 50, format "( x  -ℤ  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub _ _ _) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair (Var x) y)) (at level 50, format "( x  -ℤ  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub _ _ _) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x -ℤ y )" := (Op (Sub _ _ TZ) (Pair (Var x) (Var y))) (at level 50, format "( x  -ℤ  y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - '(bool)' y )" := (Op (Sub (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(bool)' x  -  '(bool)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(bool)' y )" := (Op (Sub (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x - y )" := (Op (Sub (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(bool)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S _)) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 1) (TWord (S _)) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S _)) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S _))) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 2) (TWord (S (S _))) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S _))) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - '(uint8_t)' y )" := (Op (Sub (TWord (S (S (S _)))) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint8_t)' x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint8_t)' y )" := (Op (Sub (TWord 3) (TWord (S (S (S _)))) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x - y )" := (Op (Sub (TWord (S (S (S _)))) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint8_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - '(uint16_t)' y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint16_t)' x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint16_t)' y )" := (Op (Sub (TWord 4) (TWord (S (S (S (S _))))) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x - y )" := (Op (Sub (TWord (S (S (S (S _))))) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint16_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - '(uint32_t)' y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint32_t)' x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint32_t)' y )" := (Op (Sub (TWord 5) (TWord (S (S (S (S (S _)))))) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S _)))))) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint32_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - '(uint64_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint64_t)' x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint64_t)' y )" := (Op (Sub (TWord 6) (TWord (S (S (S (S (S (S _))))))) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S _))))))) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint64_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - '(uint128_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint128_t)' x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint128_t)' y )" := (Op (Sub (TWord 7) (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S _)))))))) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint128_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - '(uint256_t)' y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, y at level 9, format "( '(uint256_t)' x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair x (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) y)) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - '(uint256_t)' y )" := (Op (Sub (TWord 8) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, y at level 9, format "( x  -  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x - y )" := (Op (Sub (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 50, x at level 9, format "( '(uint256_t)' x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  -  y )") : expr_scope.
+Notation "( x - y )" := (Op (Sub (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  -  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land _ _ _) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair x y)) (at level 40, format "( x  &ℤ  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land _ _ _) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair x (Var y))) (at level 40, format "( x  &ℤ  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land _ _ _) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair (Var x) y)) (at level 40, format "( x  &ℤ  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land _ _ _) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x &ℤ y )" := (Op (Land _ _ TZ) (Pair (Var x) (Var y))) (at level 40, format "( x  &ℤ  y )") : expr_scope.
+Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & '(bool)' y )" := (Op (Land (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(bool)' x  &  '(bool)' y )") : expr_scope.
+Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 40, x at level 9, format "( '(bool)' x  &  y )") : expr_scope.
+Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(bool)' x  &  y )") : expr_scope.
+Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(bool)' x  &  y )") : expr_scope.
+Notation "( x & '(bool)' y )" := (Op (Land (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x & y )" := (Op (Land (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(bool)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & '(uint8_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint8_t)' x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint8_t)' y )" := (Op (Land (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x & y )" := (Op (Land (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint8_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & '(uint16_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint16_t)' x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint16_t)' y )" := (Op (Land (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x & y )" := (Op (Land (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint16_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & '(uint32_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint32_t)' x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint32_t)' y )" := (Op (Land (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x & y )" := (Op (Land (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint32_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & '(uint64_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint64_t)' x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint64_t)' y )" := (Op (Land (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x & y )" := (Op (Land (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint64_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & '(uint128_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint128_t)' x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint128_t)' y )" := (Op (Land (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x & y )" := (Op (Land (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint128_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & '(uint256_t)' y )" := (Op (Land (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, y at level 9, format "( '(uint256_t)' x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )") : expr_scope.
+Notation "( x & '(uint256_t)' y )" := (Op (Land (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, y at level 9, format "( x  &  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x & y )" := (Op (Land (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 40, x at level 9, format "( '(uint256_t)' x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  &  y )") : expr_scope.
+Notation "( x & y )" := (Op (Land (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  &  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor _ _ _) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair x y)) (at level 45, format "( x  |ℤ  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor _ _ _) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair x (Var y))) (at level 45, format "( x  |ℤ  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor _ _ _) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair (Var x) y)) (at level 45, format "( x  |ℤ  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor _ _ _) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x |ℤ y )" := (Op (Lor _ _ TZ) (Pair (Var x) (Var y))) (at level 45, format "( x  |ℤ  y )") : expr_scope.
+Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | '(bool)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(bool)' x  |  '(bool)' y )") : expr_scope.
+Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair x y)) (at level 45, x at level 9, format "( '(bool)' x  |  y )") : expr_scope.
+Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(bool)' x  |  y )") : expr_scope.
+Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(bool)' x  |  y )") : expr_scope.
+Notation "( x | '(bool)' y )" := (Op (Lor (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(bool)' y )") : expr_scope.
+Notation "( '(bool)' x | y )" := (Op (Lor (TWord _) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(bool)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 0) (TWord 0) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair x y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 1) (TWord 1) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair x y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 2) (TWord 2) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | '(uint8_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint8_t)' x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair x y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint8_t)' y )" := (Op (Lor (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint8_t)' y )") : expr_scope.
+Notation "( '(uint8_t)' x | y )" := (Op (Lor (TWord _) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint8_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 3) (TWord 3) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | '(uint16_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint16_t)' x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair x y)) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint16_t)' y )" := (Op (Lor (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint16_t)' y )") : expr_scope.
+Notation "( '(uint16_t)' x | y )" := (Op (Lor (TWord _) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint16_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 4) (TWord 4) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | '(uint32_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint32_t)' x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair x y)) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint32_t)' y )" := (Op (Lor (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint32_t)' y )") : expr_scope.
+Notation "( '(uint32_t)' x | y )" := (Op (Lor (TWord _) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint32_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 5) (TWord 5) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | '(uint64_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint64_t)' x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair x y)) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint64_t)' y )" := (Op (Lor (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint64_t)' y )") : expr_scope.
+Notation "( '(uint64_t)' x | y )" := (Op (Lor (TWord _) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint64_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 6) (TWord 6) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | '(uint128_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint128_t)' x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair x y)) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint128_t)' y )" := (Op (Lor (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint128_t)' y )") : expr_scope.
+Notation "( '(uint128_t)' x | y )" := (Op (Lor (TWord _) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint128_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 7) (TWord 7) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | '(uint256_t)' y )" := (Op (Lor (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 45, x at level 9, y at level 9, format "( '(uint256_t)' x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair x y)) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair x (Var y))) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) y)) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )") : expr_scope.
+Notation "( x | '(uint256_t)' y )" := (Op (Lor (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 45, y at level 9, format "( x  |  '(uint256_t)' y )") : expr_scope.
+Notation "( '(uint256_t)' x | y )" := (Op (Lor (TWord _) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (at level 45, x at level 9, format "( '(uint256_t)' x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair x y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair x (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) y)) (format "( x  |  y )") : expr_scope.
+Notation "( x | y )" := (Op (Lor (TWord 8) (TWord 8) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  |  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl _ _ _) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair x y)) (at level 30, format "( x  <<ℤ  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl _ _ _) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair x (Var y))) (at level 30, format "( x  <<ℤ  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl _ _ _) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair (Var x) y)) (at level 30, format "( x  <<ℤ  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl _ _ _) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( x <<ℤ y )" := (Op (Shl _ _ TZ) (Pair (Var x) (Var y))) (at level 30, format "( x  <<ℤ  y )") : expr_scope.
+Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 30, format "( '(bool)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 30, format "( '(bool)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 30, format "( '(bool)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(bool)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 30, format "( '(bool)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint8_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint8_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 30, format "( '(uint16_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 30, format "( '(uint16_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 30, format "( '(uint16_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint16_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint16_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 30, format "( '(uint32_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 30, format "( '(uint32_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 30, format "( '(uint32_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint32_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint32_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 30, format "( '(uint64_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 30, format "( '(uint64_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 30, format "( '(uint64_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint64_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint64_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 30, format "( '(uint128_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 30, format "( '(uint128_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 30, format "( '(uint128_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint128_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint128_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 30, format "( '(uint256_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 30, format "( '(uint256_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 30, format "( '(uint256_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  <<  y )") : expr_scope.
+Notation "( '(uint256_t)' x << y )" := (Op (Shl (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 30, format "( '(uint256_t)' x  <<  y )") : expr_scope.
+Notation "( x << y )" := (Op (Shl (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  <<  y )") : expr_scope.
+Notation "( x >> y )" := (Op (Shr _ _ _) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair x y)) (at level 30, format "( x  >>ℤ  y )") : expr_scope.
+Notation "( x >> y )" := (Op (Shr _ _ _) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair x (Var y))) (at level 30, format "( x  >>ℤ  y )") : expr_scope.
+Notation "( x >> y )" := (Op (Shr _ _ _) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair (Var x) y)) (at level 30, format "( x  >>ℤ  y )") : expr_scope.
+Notation "( x >> y )" := (Op (Shr _ _ _) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "( x >>ℤ y )" := (Op (Shr _ _ TZ) (Pair (Var x) (Var y))) (at level 30, format "( x  >>ℤ  y )") : expr_scope.
+Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(bool)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 0) (TWord _) (TWord 0)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 1) (TWord _) (TWord 1)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 2) (TWord _) (TWord 2)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint8_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 3) (TWord _) (TWord 3)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint16_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 4) (TWord _) (TWord 4)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint32_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 5) (TWord _) (TWord 5)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint64_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 6) (TWord _) (TWord 6)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint128_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 7) (TWord _) (TWord 7)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair x y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair x y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair x (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair x (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair (Var x) y)) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) y)) (format "( x  >>  y )") : expr_scope.
+Notation "'(uint256_t)' ( x >> y )" := (Op (Shr (TWord _) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (at level 30) : expr_scope.
+Notation "( x >> y )" := (Op (Shr (TWord 8) (TWord _) (TWord 8)) (Pair (Var x) (Var y))) (format "( x  >>  y )") : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz32' ( v ,  x ,  y )") : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S _)))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S _)))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz32' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S _)))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz64' ( v ,  x ,  y )") : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz64' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S _))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznz128' ( v ,  x ,  y )") : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznz128' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _)))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair v (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) x) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) x) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) y)) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(bool)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _)) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(bool)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S _))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S _)))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint8_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S _))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint8_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint16_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S _)))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint16_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint32_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S _))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint32_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint64_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S _)))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint64_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair v (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) x) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) y)) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'(uint128_t)' 'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S _))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) (format "'(uint128_t)' 'cmovznzℤ' ( v ,  x ,  y )") : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord _) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect (TWord _) (TWord _) (TWord (S (S (S (S (S (S (S (S _))))))))) (TWord (S (S (S (S (S (S (S (S _)))))))))) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair v (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) x) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) x) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) (Var x)) y)) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect TZ _ _ _) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ TZ _ _) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ TZ _) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'cmovznzℤ' ( v , x , y )" := (Op (Zselect _ _ _ TZ) (Pair (Pair (Var v) (Var x)) (Var y))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32' ( c , a , b )" := (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64' ( c , a , b )" := (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128' ( c , a , b )" := (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51' ( c , a , b )" := (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32' ( c , a , b )" := (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64' ( c , a , b )" := (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128' ( c , a , b )" := (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51' ( c , a , b )" := (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u1' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 0) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 0) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 0) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32_out_u8' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 3) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 3) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 3) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u1' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64_out_u8' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u1' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 0) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 0) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 0) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128_out_u8' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 3) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 3) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 3) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(bool)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u1' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 0) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 0) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(bool)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 0) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u1' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 0)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'(uint8_t)' 'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51_out_u8' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 3) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 3) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '(uint8_t)' '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 3) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51_out_u8' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 3)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32' ( a , b )" := (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 (TWord 5) (TWord 5) (TWord 5) (TWord 5)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64' ( a , b )" := (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128' ( a , b )" := (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 (TWord 7) (TWord 7) (TWord 7) (TWord 7)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51' ( a , b )" := (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 (TWord 6) (TWord 6) (TWord 6) (TWord 6)) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u32ℤ' ( c , a , b )" := (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u64ℤ' ( c , a , b )" := (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u128ℤ' ( c , a , b )" := (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'addcarryx_u51ℤ' ( c , a , b )" := (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_addcarryx_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (AddWithGetCarry 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u32ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u32ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 32 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u64ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u64ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 64 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u128ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u128ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 128 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) b)) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair c (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+Notation "'subborrow_u51ℤ' ( c , a , b )" := (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ _ TZ) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_subborrow_u51ℤ' ( c , a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (SubWithGetBorrow 51 _ _ _ TZ _) (Pair (Pair (Var c) (Var a)) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair a b)) : expr_scope.
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u32ℤ' ( a , b )" := (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u32ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 32 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair a b)) : expr_scope.
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u64ℤ' ( a , b )" := (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u64ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 64 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair a b)) : expr_scope.
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u128ℤ' ( a , b )" := (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u128ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 128 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair a b)) : expr_scope.
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair a b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair a b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair a (Var b))) : expr_scope.
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair a (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair a (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) b)) : expr_scope.
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) b)) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) b)) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) (Var b))) : expr_scope.
+Notation "'mulx_u51ℤ' ( a , b )" := (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) (Var b))) : expr_scope.
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ _ TZ) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
+(*Notation "T0 out ; T1 c_out = '_mulx_u51ℤ' ( a , b , & out ) ; REST" := (LetIn (tx:=Prod T0 T1) (Op (MulSplit 51 _ _ TZ _) (Pair (Var a) (Var b))) (fun '((out, c_out)%core) => REST)) : expr_scope.*)
 Notation Return x := (Var x).
 Notation C_like := (Expr base_type op _).