Imported Upstream version 8.3~rc1+dfsgupstream/8.3.rc1.dfsg

5 files changed, 106 insertions, 310 deletions

diff --git a/test-suite/success/Field.v b/test-suite/success/Field.v
index b5fba17b..cb90e742 100644
--- a/test-suite/success/Field.v
+++ b/test-suite/success/Field.v
@@ -6,7 +6,7 @@
 (*         *       GNU Lesser General Public License Version 2.1        *)
 (************************************************************************)
 
-(* $Id$ *)
+(* $Id: Field.v 13323 2010-07-24 15:57:30Z herbelin $ *)
 
 (**** Tests of Field with real numbers ****)
 
diff --git a/test-suite/success/Nsatz.v b/test-suite/success/Nsatz.v
index fde9f470..518d22e9 100644
--- a/test-suite/success/Nsatz.v
+++ b/test-suite/success/Nsatz.v
@@ -1,4 +1,74 @@
-Require Import NsatzR ZArith Reals List Ring_polynom.
+Require Import Nsatz ZArith Reals List Ring_polynom.
+
+(* Example with a generic domain *)
+
+Variable A: Type.
+Variable Ad: Domain A.
+
+Definition Ari : Ring A:= (@domain_ring A Ad).
+Existing Instance Ari.
+
+Existing Instance ring_setoid.
+Existing Instance ring_plus_comp.
+Existing Instance ring_mult_comp.
+Existing Instance ring_sub_comp.
+Existing Instance ring_opp_comp.
+
+Add Ring Ar: (@ring_ring A (@domain_ring A Ad)).
+
+Instance zero_ring2 : Zero A := {zero := ring0}.
+Instance one_ring2 : One A := {one := ring1}.
+Instance addition_ring2 : Addition A := {addition x y := ring_plus x y}.
+Instance multiplication_ring2 : Multiplication A := {multiplication x y := ring_mult x y}.
+Instance subtraction_ring2 : Subtraction A := {subtraction x y := ring_sub x y}.
+Instance opposite_ring2 : Opposite A := {opposite x := ring_opp x}.
+
+Infix "==" := ring_eq (at level 70, no associativity).
+
+Ltac nsatzA := simpl; unfold Ari; nsatz_domain.
+
+Goal forall x y:A,  x == y -> x+0 == y*1+0.
+nsatzA.
+Qed.
+
+Lemma example3 : forall x y z,
+  x+y+z==0 ->
+  x*y+x*z+y*z==0->
+  x*y*z==0 -> x*x*x==0.
+Proof.
+Time nsatzA. 
+Admitted.
+
+Lemma example4 : forall x y z u,
+  x+y+z+u==0 ->
+  x*y+x*z+x*u+y*z+y*u+z*u==0->
+  x*y*z+x*y*u+x*z*u+y*z*u==0->
+  x*y*z*u==0 -> x*x*x*x==0.
+Proof.
+Time nsatzA.
+Qed.
+
+Lemma example5 : forall x y z u v,
+  x+y+z+u+v==0 ->
+  x*y+x*z+x*u+x*v+y*z+y*u+y*v+z*u+z*v+u*v==0->
+  x*y*z+x*y*u+x*y*v+x*z*u+x*z*v+x*u*v+y*z*u+y*z*v+y*u*v+z*u*v==0->
+  x*y*z*u+y*z*u*v+z*u*v*x+u*v*x*y+v*x*y*z==0 ->
+  x*y*z*u*v==0 -> x*x*x*x*x ==0.
+Proof.
+Time nsatzA.
+Qed.
+
+Goal forall x y:Z,  x = y -> (x+0)%Z = (y*1+0)%Z.
+nsatz.
+Qed.
+
+Goal forall x y:R,  x = y -> (x+0)%R = (y*1+0)%R.
+nsatz.
+Qed.
+
+Goal forall a b c x:R, a = b -> b = c -> (a*a)%R = (c*c)%R.
+nsatz.
+Qed.
 
 Section Examples.
 
@@ -16,12 +86,12 @@ Lemma example1 : forall x y,
   x*y=0 ->
   x^2=0.
 Proof.
- nsatzR.
+ nsatz.
 Qed.
 
 Lemma example2 : forall x, x^2=0 -> x=0.
 Proof.
- nsatzR.
+ nsatz.
 Qed.
 
 (*
@@ -29,12 +99,12 @@ Notation X  := (PEX Z 3).
 Notation Y  := (PEX Z 2).
 Notation Z_ := (PEX Z 1).
 *)
-Lemma example3 : forall x y z,
+Lemma example3b : forall x y z,
   x+y+z=0 ->
   x*y+x*z+y*z=0->
   x*y*z=0 -> x^3=0.
 Proof.
-Time nsatzR.
+Time nsatz. 
 Qed.
 
 (*
@@ -43,13 +113,13 @@ Notation Y  := (PEX Z 3).
 Notation Z_ := (PEX Z 2).
 Notation U  := (PEX Z 1).
 *)
-Lemma example4 : forall x y z u,
+Lemma example4b : forall x y z u,
   x+y+z+u=0 ->
   x*y+x*z+x*u+y*z+y*u+z*u=0->
   x*y*z+x*y*u+x*z*u+y*z*u=0->
   x*y*z*u=0 -> x^4=0.
 Proof.
-Time nsatzR.
+Time nsatz.
 Qed.
 
 (*
@@ -64,20 +134,20 @@ Notation "x :: y" := (List.app x y)
 (at level 60, right associativity, format "x :: y").
 *)
 
-Lemma example5 : forall x y z u v,
+Lemma example5b : forall x y z u v,
   x+y+z+u+v=0 ->
   x*y+x*z+x*u+x*v+y*z+y*u+y*v+z*u+z*v+u*v=0->
   x*y*z+x*y*u+x*y*v+x*z*u+x*z*v+x*u*v+y*z*u+y*z*v+y*u*v+z*u*v=0->
   x*y*z*u+y*z*u*v+z*u*v*x+u*v*x*y+v*x*y*z=0 ->
   x*y*z*u*v=0 -> x^5=0.
 Proof.
-Time nsatzR.
+Time nsatz.
 Qed.
 
 End Examples.
 
 Section Geometry.
-Require Export Reals NsatzR.
+
 Open Scope R_scope.
 
 Record point:Type:={
@@ -169,6 +239,7 @@ Ltac geo_begin:=
 
 (* Examples *)
 
+
 Lemma Thales: forall O A B C D:point,
   collinear O A C -> collinear O B D ->
   parallel A B C D ->
@@ -176,26 +247,7 @@ Lemma Thales: forall O A B C D:point,
   /\ distance2 O B * distance2 C D = distance2 O D * distance2 A B)
  \/ collinear O A B.
 repeat geo_begin.
-(*
 Time nsatz.
-*)
-Time nsatz without sugar.
-(*
-Time nsatz with lexico sugar.
-Time nsatz with lexico.
-*)
-(*
-Time nsatzRpv 1%N 1%Z (@nil R) (@nil R). (* revlex, sugar, no div *)
-(*Finished transaction in 1. secs (0.479927u,0.s)*)
-Time nsatzRpv 1%N 0%Z (@nil R) (@nil R). (* revlex, no sugar, no div *)
-(*Finished transaction in 0. secs (0.543917u,0.s)*)
-Time nsatzRpv 1%N 2%Z (@nil R) (@nil R). (* lex, no sugar, no div *)
-(*Finished transaction in 0. secs (0.586911u,0.s)*)
-Time nsatzRpv 1%N 3%Z (@nil R) (@nil R). (* lex, sugar, no div *)
-(*Finished transaction in 0. secs (0.481927u,0.s)*)
-Time nsatzRpv 1%N 5%Z (@nil R) (@nil R). (* revlex, sugar, div *)
-(*Finished transaction in 1. secs (0.601909u,0.s)*)
-*)
 Time nsatz.
 Qed.
 
@@ -209,8 +261,26 @@ Lemma hauteurs:forall A B C A1 B1 C1 H:point,
   \/ collinear A B C.
 
 geo_begin.
-Time nsatz.
-(*Finished transaction in 3. secs (2.43263u,0.010998s)*)
+ 
+(* Time nsatzRpv 2%N 1%Z (@nil R) (@nil R).*)
+(*Finished transaction in 3. secs (2.363641u,0.s)*)
+(*Time nsatz_domainR. trop long! *)
+Time 
+ let lv := constr:(Y A1
+ :: X A1
+    :: Y B1
+       :: X B1
+          :: Y A0
+             :: Y B
+                :: X B
+                   :: X A0
+                      :: X H
+                         :: Y C
+                            :: Y C1 :: Y H :: X C1 :: X C :: (@Datatypes.nil R)) in
+ nsatz_domainpv ltac:pretacR 2%N 1%Z (@Datatypes.nil R) lv ltac:simplR Rdi;
+  discrR.
+(* Finished transaction in 6. secs (5.579152u,0.001s) *)
 Qed.
 
 End Geometry.
+
diff --git a/test-suite/success/Nsatz_domain.v b/test-suite/success/Nsatz_domain.v
deleted file mode 100644
index 8a30b47f..00000000
--- a/test-suite/success/Nsatz_domain.v
+++ /dev/null
@@ -1,274 +0,0 @@
-Require Import Nsatz_domain ZArith Reals List Ring_polynom.
-
-Variable A: Type.
-Variable Ad: Domain A.
-
-Add Ring Ar1: (@ring_ring A (@domain_ring _ Ad)).
-
-Instance Ari : Ring A := {
-  ring0 := @ring0 A (@domain_ring _ Ad);
-  ring1 := @ring1 A (@domain_ring _ Ad);
-  ring_plus := @ring_plus A (@domain_ring _ Ad);
-  ring_mult := @ring_mult A (@domain_ring _ Ad);
-  ring_sub := @ring_sub A (@domain_ring _ Ad);
-  ring_opp := @ring_opp A (@domain_ring _ Ad);
-  ring_ring := @ring_ring A (@domain_ring _ Ad)}.
-
-Instance Adi : Domain A := {
-  domain_ring := Ari;
-  domain_axiom_product := @domain_axiom_product A Ad;
-  domain_axiom_one_zero := @domain_axiom_one_zero A Ad}.
-
-Instance zero_ring2 : Zero A := {zero := ring0}.
-Instance one_ring2 : One A := {one := ring1}.
-Instance addition_ring2 : Addition A := {addition x y := ring_plus x y}.
-Instance multiplication_ring2 : Multiplication A := {multiplication x y := ring_mult x y}.
-Instance subtraction_ring2 : Subtraction A := {subtraction x y := ring_sub x y}.
-Instance opposite_ring2 : Opposite A := {opposite x := ring_opp x}.
-
-Goal forall x y:A,  x = y -> x+0 = y*1+0.
-nsatz_domain.
-Qed.
-
-Goal forall a b c:A, a = b -> b = c -> c = a.
-nsatz_domain.
-Qed.
-
-Goal forall a b c:A, a = b -> b = c -> a = c.
-nsatz_domain.
-Qed.
-
-Goal forall a b c x:A, a = b -> b = c -> a*a = c*c.
-nsatz_domain.
-Qed.
-
-Goal forall x y:Z,  x = y -> (x+0)%Z = (y*1+0)%Z.
-nsatz_domainZ.
-Qed.
-
-Goal forall x y:R,  x = y -> (x+0)%R = (y*1+0)%R.
-nsatz_domainR.
-Qed.
-
-Goal forall a b c x:R, a = b -> b = c -> (a*a)%R = (c*c)%R.
-nsatz_domainR.
-Qed.
-
-Section Examples.
-
-Delimit Scope PE_scope with PE.
-Infix "+" := PEadd : PE_scope.
-Infix "*" := PEmul : PE_scope.
-Infix "-" := PEsub : PE_scope.
-Infix "^" := PEpow : PE_scope.
-Notation "[ n ]" := (@PEc Z n) (at level 0).
-
-Open Scope R_scope.
-
-Lemma example1 : forall x y,
-  x+y=0 ->
-  x*y=0 ->
-  x^2=0.
-Proof.
- nsatz_domainR.
-Qed.
-
-Lemma example2 : forall x, x^2=0 -> x=0.
-Proof.
- nsatz_domainR.
-Qed.
-
-(*
-Notation X  := (PEX Z 3).
-Notation Y  := (PEX Z 2).
-Notation Z_ := (PEX Z 1).
-*)
-Lemma example3 : forall x y z,
-  x+y+z=0 ->
-  x*y+x*z+y*z=0->
-  x*y*z=0 -> x^3=0.
-Proof.
-Time nsatz_domainR.
-simpl.
-discrR.
-Qed.
-
-(*
-Notation X  := (PEX Z 4).
-Notation Y  := (PEX Z 3).
-Notation Z_ := (PEX Z 2).
-Notation U  := (PEX Z 1).
-*)
-Lemma example4 : forall x y z u,
-  x+y+z+u=0 ->
-  x*y+x*z+x*u+y*z+y*u+z*u=0->
-  x*y*z+x*y*u+x*z*u+y*z*u=0->
-  x*y*z*u=0 -> x^4=0.
-Proof.
-Time nsatz_domainR.
-Qed.
-
-(*
-Notation x_ := (PEX Z 5).
-Notation y_ := (PEX Z 4).
-Notation z_ := (PEX Z 3).
-Notation u_ := (PEX Z 2).
-Notation v_ := (PEX Z 1).
-Notation "x :: y" := (List.cons x y)
-(at level 60, right associativity, format "'[hv' x  ::  '/' y ']'").
-Notation "x :: y" := (List.app x y)
-(at level 60, right associativity, format "x :: y").
-*)
-
-Lemma example5 : forall x y z u v,
-  x+y+z+u+v=0 ->
-  x*y+x*z+x*u+x*v+y*z+y*u+y*v+z*u+z*v+u*v=0->
-  x*y*z+x*y*u+x*y*v+x*z*u+x*z*v+x*u*v+y*z*u+y*z*v+y*u*v+z*u*v=0->
-  x*y*z*u+y*z*u*v+z*u*v*x+u*v*x*y+v*x*y*z=0 ->
-  x*y*z*u*v=0 -> x^5=0.
-Proof.
-Time nsatz_domainR.
-Qed.
-
-End Examples.
-
-Section Geometry.
-
-Open Scope R_scope.
-
-Record point:Type:={
- X:R;
- Y:R}.
-
-Definition collinear(A B C:point):=
-  (X A - X B)*(Y C - Y B)-(Y A - Y B)*(X C - X B)=0.
-
-Definition parallel (A B C D:point):=
-  ((X A)-(X B))*((Y C)-(Y D))=((Y A)-(Y B))*((X C)-(X D)).
-
-Definition notparallel (A B C D:point)(x:R):=
-  x*(((X A)-(X B))*((Y C)-(Y D))-((Y A)-(Y B))*((X C)-(X D)))=1.
-
-Definition orthogonal (A B C D:point):=
-  ((X A)-(X B))*((X C)-(X D))+((Y A)-(Y B))*((Y C)-(Y D))=0.
-
-Definition equal2(A B:point):=
-  (X A)=(X B) /\ (Y A)=(Y B).
-
-Definition equal3(A B:point):=
-  ((X A)-(X B))^2+((Y A)-(Y B))^2 = 0.
-
-Definition nequal2(A B:point):=
-  (X A)<>(X B) \/ (Y A)<>(Y B).
-
-Definition nequal3(A B:point):=
-  not (((X A)-(X B))^2+((Y A)-(Y B))^2 = 0).
-
-Definition middle(A B I:point):=
-  2*(X I)=(X A)+(X B) /\ 2*(Y I)=(Y A)+(Y B).
-
-Definition distance2(A B:point):=
-  (X B - X A)^2 + (Y B - Y A)^2.
-
-(* AB = CD *)
-Definition samedistance2(A B C D:point):=
-  (X B - X A)^2 + (Y B - Y A)^2 = (X D - X C)^2 + (Y D - Y C)^2.
-Definition determinant(A O B:point):=
-  (X A - X O)*(Y B - Y O) - (Y A - Y O)*(X B - X O).
-Definition scalarproduct(A O B:point):=
-  (X A - X O)*(X B - X O) + (Y A - Y O)*(Y B - Y O).
-Definition norm2(A O B:point):=
-  ((X A - X O)^2+(Y A - Y O)^2)*((X B - X O)^2+(Y B - Y O)^2).
-
-
-Lemma a1:forall A B C:Prop, ((A\/B)/\(A\/C)) -> (A\/(B/\C)).
-intuition.
-Qed.
-
-Lemma a2:forall A B C:Prop, ((A\/C)/\(B\/C)) -> ((A/\B)\/C).
-intuition.
-Qed.
-
-Lemma a3:forall a b c d:R, (a-b)*(c-d)=0 -> (a=b \/ c=d).
-intros.
-assert ( (a-b = 0) \/ (c-d = 0)).
-apply Rmult_integral.
-trivial.
-destruct H0.
-left; nsatz_domainR.
-right; nsatz_domainR.
-Qed.
-
-Ltac geo_unfold :=
-  unfold collinear; unfold parallel; unfold notparallel; unfold orthogonal;
-  unfold equal2; unfold equal3; unfold nequal2; unfold nequal3;
-  unfold middle; unfold samedistance2;
-  unfold determinant; unfold scalarproduct; unfold norm2; unfold distance2.
-
-Ltac geo_end :=
-  repeat (
-  repeat (match goal with h:_/\_ |- _ => decompose [and] h; clear h end);
-  repeat (apply a1 || apply a2 || apply a3);
-  repeat split).
-
-Ltac geo_rewrite_hyps:=
-  repeat (match goal with
-           | h:X _ = _ |- _ => rewrite h in *; clear h
-           | h:Y _ = _ |- _ => rewrite h in *; clear h
-          end).
-
-Ltac geo_begin:=
-  geo_unfold;
-  intros;
-  geo_rewrite_hyps;
-  geo_end.
-
-(* Examples *)
-
-Lemma Thales: forall O A B C D:point,
-  collinear O A C -> collinear O B D ->
-  parallel A B C D ->
-  (distance2 O B * distance2 O C = distance2 O D * distance2 O A
-  /\ distance2 O B * distance2 C D = distance2 O D * distance2 A B)
- \/ collinear O A B.
-repeat geo_begin.
-
-Time nsatz_domainR.
-simpl;discrR.
-Time nsatz_domainR.
-simpl;discrR.
-Qed.
-
-Require Import NsatzR.
-
-Lemma hauteurs:forall A B C A1 B1 C1 H:point,
-  collinear B C A1 ->  orthogonal A A1 B C ->
-  collinear A C B1 -> orthogonal B B1 A C ->
-  collinear A B C1 -> orthogonal C C1 A B ->
-  collinear A A1 H -> collinear B B1 H ->
-
-  collinear C C1 H
-  \/ collinear A B C.
-
-geo_begin.
-(* Time nsatzRpv 2%N 1%Z (@nil R) (@nil R).*)
-(*Finished transaction in 3. secs (2.363641u,0.s)*)
-(*Time nsatz_domainR. trop long! *)
-(* en fait nsatz_domain ne tient pas encore compte de la liste des variables! ;-) *)
-Time
- let lv := constr:(Y A1
- :: X A1
-    :: Y B1
-       :: X B1
-          :: Y A0
-             :: Y B
-                :: X B
-                   :: X A0
-                      :: X H
-                         :: Y C
-                            :: Y C1 :: Y H :: X C1 :: X C ::nil) in
- nsatz_domainpv 2%N 1%Z (@List.nil R) lv ltac:simplR Rdi.
-(* Finished transaction in 6. secs (5.579152u,0.001s) *)
-Qed.
-
-End Geometry.
diff --git a/test-suite/success/Tauto.v b/test-suite/success/Tauto.v
index b9326c64..6322ed2b 100644
--- a/test-suite/success/Tauto.v
+++ b/test-suite/success/Tauto.v
@@ -6,7 +6,7 @@
 (*         *       GNU Lesser General Public License Version 2.1        *)
 (************************************************************************)
 
-(* $Id$ *)
+(* $Id: Tauto.v 13323 2010-07-24 15:57:30Z herbelin $ *)
 
 (**** Tactics Tauto and Intuition ****)
 
diff --git a/test-suite/success/Typeclasses.v b/test-suite/success/Typeclasses.v
index 55351a47..30a2a742 100644
--- a/test-suite/success/Typeclasses.v
+++ b/test-suite/success/Typeclasses.v
@@ -8,9 +8,9 @@ Reserved Notation "x >>= y" (at level 65, left associativity).
 
 
 Record Monad {m : Type -> Type} := {
-  unit : Π {α}, α -> m α where "'return' t" := (unit t) ;
-  bind : Π {α β}, m α -> (α -> m β) -> m β where "x >>= y" := (bind x y) ;
-  bind_unit_left : Π {α β} (a : α) (f : α -> m β), return a >>= f = f a }.
+  unit : forall {α}, α -> m α where "'return' t" := (unit t) ;
+  bind : forall {α β}, m α -> (α -> m β) -> m β where "x >>= y" := (bind x y) ;
+  bind_unit_left : forall {α β} (a : α) (f : α -> m β), return a >>= f = f a }.
 
 Print Visibility.
 Print unit.