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-rw-r--r--tactics/tacinterp.ml605
1 files changed, 400 insertions, 205 deletions
diff --git a/tactics/tacinterp.ml b/tactics/tacinterp.ml
index a41cd6e7..3efff8fa 100644
--- a/tactics/tacinterp.ml
+++ b/tactics/tacinterp.ml
@@ -175,8 +175,8 @@ let _ =
"intros", TacIntroPattern [];
"assumption", TacAssumption;
"cofix", TacCofix None;
- "trivial", TacTrivial ([],None);
- "auto", TacAuto(None,[],None);
+ "trivial", TacTrivial (Off,[],None);
+ "auto", TacAuto(Off,None,[],None);
"left", TacLeft(false,NoBindings);
"eleft", TacLeft(true,NoBindings);
"right", TacRight(false,NoBindings);
@@ -254,7 +254,7 @@ type glob_sign = {
type interp_genarg_type =
(glob_sign -> raw_generic_argument -> glob_generic_argument) *
(interp_sign -> goal sigma -> glob_generic_argument ->
- typed_generic_argument) *
+ Evd.evar_map * typed_generic_argument) *
(substitution -> glob_generic_argument -> glob_generic_argument)
let extragenargtab =
@@ -713,17 +713,10 @@ let rec intern_atomic lf ist x =
(clause_app (intern_hyp_location ist) cls),b)
(* Automation tactics *)
- | TacTrivial (lems,l) -> TacTrivial (List.map (intern_constr ist) lems,l)
- | TacAuto (n,lems,l) ->
- TacAuto (Option.map (intern_or_var ist) n,
+ | TacTrivial (d,lems,l) -> TacTrivial (d,List.map (intern_constr ist) lems,l)
+ | TacAuto (d,n,lems,l) ->
+ TacAuto (d,Option.map (intern_or_var ist) n,
List.map (intern_constr ist) lems,l)
- | TacAutoTDB n -> TacAutoTDB n
- | TacDestructHyp (b,id) -> TacDestructHyp(b,intern_hyp ist id)
- | TacDestructConcl -> TacDestructConcl
- | TacSuperAuto (n,l,b1,b2) -> TacSuperAuto (n,l,b1,b2)
- | TacDAuto (n,p,lems) ->
- TacDAuto (Option.map (intern_or_var ist) n,p,
- List.map (intern_constr ist) lems)
(* Derived basic tactics *)
| TacSimpleInductionDestruct (isrec,h) ->
@@ -1256,7 +1249,8 @@ let interp_gen kind ist allow_patvar expand_evar fail_evar use_classes env sigma
in
let trace = push_trace (dloc,LtacConstrInterp (c,vars)) ist.trace in
let evdc =
- catch_error trace (understand_ltac expand_evar sigma env vars kind) c in
+ catch_error trace
+ (understand_ltac ~resolve_classes:use_classes expand_evar sigma env vars kind) c in
let (evd,c) =
if expand_evar then
solve_remaining_evars fail_evar use_classes
@@ -1268,7 +1262,7 @@ let interp_gen kind ist allow_patvar expand_evar fail_evar use_classes env sigma
(* Interprets a constr; expects evars to be solved *)
let interp_constr_gen kind ist env sigma c =
- snd (interp_gen kind ist false true true true env sigma c)
+ interp_gen kind ist false true true true env sigma c
let interp_constr = interp_constr_gen (OfType None)
@@ -1278,8 +1272,8 @@ let interp_type = interp_constr_gen IsType
let interp_open_constr_gen kind ist =
interp_gen kind ist false true false false
-let interp_open_constr ccl =
- interp_open_constr_gen (OfType ccl)
+let interp_open_constr ccl ist =
+ interp_gen (OfType ccl) ist false true false (ccl<>None)
let interp_pure_open_constr ist =
interp_gen (OfType None) ist false false false false
@@ -1317,7 +1311,7 @@ let interp_constr_in_compound_list inj_fun dest_fun interp_fun ist env sigma l =
sigma, List.flatten l
let interp_constr_list ist env sigma c =
- snd (interp_constr_in_compound_list (fun x -> x) (fun x -> x) (fun ist env sigma c -> (Evd.empty, interp_constr ist env sigma c)) ist env sigma c)
+ interp_constr_in_compound_list (fun x -> x) (fun x -> x) interp_constr ist env sigma c
let interp_open_constr_list =
interp_constr_in_compound_list (fun x -> x) (fun x -> x)
@@ -1339,7 +1333,8 @@ let interp_flag ist env red =
{ red with rConst = List.map (interp_evaluable ist env) red.rConst }
let interp_constr_with_occurrences ist sigma env (occs,c) =
- (interp_occurrences ist occs, interp_constr ist sigma env c)
+ let (sigma,c_interp) = interp_constr ist sigma env c in
+ sigma , (interp_occurrences ist occs, c_interp)
let interp_typed_pattern_with_occurrences ist env sigma (occs,c) =
let sign,p = interp_typed_pattern ist env sigma c in
@@ -1354,36 +1349,48 @@ let interp_constr_with_occurrences_and_name_as_list =
(function ((occs,c),Anonymous) when occs = all_occurrences_expr -> c
| _ -> raise Not_found)
(fun ist env sigma (occ_c,na) ->
- sigma, (interp_constr_with_occurrences ist env sigma occ_c,
+ let (sigma,c_interp) = interp_constr_with_occurrences ist env sigma occ_c in
+ sigma, (c_interp,
interp_fresh_name ist env na))
let interp_red_expr ist sigma env = function
- | Unfold l -> Unfold (List.map (interp_unfold ist env) l)
- | Fold l -> Fold (List.map (interp_constr ist env sigma) l)
- | Cbv f -> Cbv (interp_flag ist env f)
- | Lazy f -> Lazy (interp_flag ist env f)
+ | Unfold l -> sigma , Unfold (List.map (interp_unfold ist env) l)
+ | Fold l ->
+ let (sigma,l_interp) = interp_constr_list ist env sigma l in
+ sigma , Fold l_interp
+ | Cbv f -> sigma , Cbv (interp_flag ist env f)
+ | Lazy f -> sigma , Lazy (interp_flag ist env f)
| Pattern l ->
- Pattern (List.map (interp_constr_with_occurrences ist env sigma) l)
+ let (sigma,l_interp) =
+ List.fold_right begin fun c (sigma,acc) ->
+ let (sigma,c_interp) = interp_constr_with_occurrences ist env sigma c in
+ sigma , c_interp :: acc
+ end l (sigma,[])
+ in
+ sigma , Pattern l_interp
| Simpl o ->
- Simpl(Option.map (interp_closed_typed_pattern_with_occurrences ist env sigma) o)
- | (Red _ | Hnf | ExtraRedExpr _ | CbvVm as r) -> r
+ sigma , Simpl(Option.map (interp_closed_typed_pattern_with_occurrences ist env sigma) o)
+ | (Red _ | Hnf | ExtraRedExpr _ | CbvVm as r) -> sigma , r
let pf_interp_red_expr ist gl = interp_red_expr ist (project gl) (pf_env gl)
let interp_may_eval f ist gl = function
| ConstrEval (r,c) ->
- let redexp = pf_interp_red_expr ist gl r in
- pf_reduction_of_red_expr gl redexp (f ist gl c)
+ let (sigma,redexp) = pf_interp_red_expr ist gl r in
+ let (sigma,c_interp) = f ist { gl with sigma=sigma } c in
+ sigma , pf_reduction_of_red_expr gl redexp c_interp
| ConstrContext ((loc,s),c) ->
(try
- let ic = f ist gl c
+ let (sigma,ic) = f ist gl c
and ctxt = constr_of_VConstr_context (List.assoc s ist.lfun) in
- subst_meta [special_meta,ic] ctxt
+ sigma , subst_meta [special_meta,ic] ctxt
with
| Not_found ->
user_err_loc (loc, "interp_may_eval",
str "Unbound context identifier" ++ pr_id s ++ str"."))
- | ConstrTypeOf c -> pf_type_of gl (f ist gl c)
+ | ConstrTypeOf c ->
+ let (sigma,c_interp) = f ist gl c in
+ sigma , pf_type_of gl c_interp
| ConstrTerm c ->
try
f ist gl c
@@ -1394,7 +1401,7 @@ let interp_may_eval f ist gl = function
(* Interprets a constr expression possibly to first evaluate *)
let interp_constr_may_eval ist gl c =
- let csr =
+ let (sigma,csr) =
try
interp_may_eval pf_interp_constr ist gl c
with e ->
@@ -1403,7 +1410,7 @@ let interp_constr_may_eval ist gl c =
in
begin
db_constr ist.debug (pf_env gl) csr;
- csr
+ sigma , csr
end
let rec message_of_value gl = function
@@ -1565,7 +1572,7 @@ let interp_induction_arg ist gl arg =
ElimOnIdent (loc,id)
else
let c = (GVar (loc,id),Some (CRef (Ident (loc,id)))) in
- let c = interp_constr ist env sigma c in
+ let (sigma,c) = interp_constr ist env sigma c in
ElimOnConstr (sigma,(c,NoBindings))
(* Associates variables with values and gives the remaining variables and
@@ -1725,7 +1732,12 @@ let apply_one_mhyp_context ist env gl lmatch (hypname,patv,pat) lhyps =
(* misc *)
-let mk_constr_value ist gl c = VConstr ([],pf_interp_constr ist gl c)
+let mk_constr_value ist gl c =
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ sigma,VConstr ([],c_interp)
+let mk_open_constr_value ist gl c =
+ let (sigma,c_interp) = pf_apply (interp_open_constr None ist) gl c in
+ sigma,VConstr ([],c_interp)
let mk_hyp_value ist gl c = VConstr ([],mkVar (interp_hyp ist gl c))
let mk_int_or_var_value ist c = VInteger (interp_int_or_var ist c)
@@ -1739,17 +1751,16 @@ let extend_gl_hyps { it=gl ; sigma=sigma } sign =
(* Interprets an l-tac expression into a value *)
let rec val_interp ist gl (tac:glob_tactic_expr) =
-
let value_interp ist = match tac with
(* Immediate evaluation *)
- | TacFun (it,body) -> VFun (ist.trace,ist.lfun,it,body)
+ | TacFun (it,body) -> project gl , VFun (ist.trace,ist.lfun,it,body)
| TacLetIn (true,l,u) -> interp_letrec ist gl l u
| TacLetIn (false,l,u) -> interp_letin ist gl l u
| TacMatchGoal (lz,lr,lmr) -> interp_match_goal ist gl lz lr lmr
| TacMatch (lz,c,lmr) -> interp_match ist gl lz c lmr
| TacArg (loc,a) -> interp_tacarg ist gl a
(* Delayed evaluation *)
- | t -> VFun (ist.trace,ist.lfun,[],t)
+ | t -> project gl , VFun (ist.trace,ist.lfun,[],t)
in check_for_interrupt ();
match ist.debug with
@@ -1769,7 +1780,9 @@ and eval_tactic ist = function
catch_error (push_trace(loc,call)ist.trace) tac gl
| TacFun _ | TacLetIn _ -> assert false
| TacMatchGoal _ | TacMatch _ -> assert false
- | TacId s -> fun gl -> tclIDTAC_MESSAGE (interp_message_nl ist gl s) gl
+ | TacId s -> fun gl ->
+ let res = tclIDTAC_MESSAGE (interp_message_nl ist gl s) gl in
+ db_breakpoint ist.debug s; res
| TacFail (n,s) -> fun gl -> tclFAIL (interp_int_or_var ist n) (interp_message ist gl s) gl
| TacProgress tac -> tclPROGRESS (interp_tactic ist tac)
| TacAbstract (tac,ido) ->
@@ -1782,14 +1795,6 @@ and eval_tactic ist = function
| TacDo (n,tac) -> tclDO (interp_int_or_var ist n) (interp_tactic ist tac)
| TacTimeout (n,tac) -> tclTIMEOUT (interp_int_or_var ist n) (interp_tactic ist tac)
| TacTry tac -> tclTRY (interp_tactic ist tac)
- | TacInfo tac ->
- let t = (interp_tactic ist tac) in
- tclINFO
- begin
- match tac with
- TacAtom (_,_) -> t
- | _ -> abstract_tactic_expr (TacArg (dloc,Tacexp tac)) t
- end
| TacRepeat tac -> tclREPEAT (interp_tactic ist tac)
| TacOrelse (tac1,tac2) ->
tclORELSE (interp_tactic ist tac1) (interp_tactic ist tac2)
@@ -1797,17 +1802,23 @@ and eval_tactic ist = function
| TacSolve l -> tclSOLVE (List.map (interp_tactic ist) l)
| TacComplete tac -> tclCOMPLETE (interp_tactic ist tac)
| TacArg a -> interp_tactic ist (TacArg a)
+ | TacInfo tac ->
+ msg_warning
+ (str "The general \"info\" tactic is currently not working.\n" ++
+ str "Some specific verbose tactics may exist instead, such as\n" ++
+ str "info_trivial, info_auto, info_eauto.");
+ eval_tactic ist tac
and force_vrec ist gl = function
| VRec (lfun,body) -> val_interp {ist with lfun = !lfun} gl body
- | v -> v
+ | v -> project gl , v
and interp_ltac_reference loc' mustbetac ist gl = function
| ArgVar (loc,id) ->
let v = List.assoc id ist.lfun in
- let v = force_vrec ist gl v in
+ let (sigma,v) = force_vrec ist gl v in
let v = propagate_trace ist loc id v in
- if mustbetac then coerce_to_tactic loc id v else v
+ sigma , if mustbetac then coerce_to_tactic loc id v else v
| ArgArg (loc,r) ->
let ids = extract_ids [] ist.lfun in
let loc_info = ((if loc' = dloc then loc else loc'),LtacNameCall r) in
@@ -1816,36 +1827,69 @@ and interp_ltac_reference loc' mustbetac ist gl = function
trace = push_trace loc_info ist.trace } in
val_interp ist gl (lookup r)
-and interp_tacarg ist gl = function
- | TacVoid -> VVoid
- | Reference r -> interp_ltac_reference dloc false ist gl r
- | Integer n -> VInteger n
- | IntroPattern ipat -> VIntroPattern (snd (interp_intro_pattern ist gl ipat))
- | ConstrMayEval c -> VConstr ([],interp_constr_may_eval ist gl c)
- | MetaIdArg (loc,_,id) -> assert false
- | TacCall (loc,r,[]) -> interp_ltac_reference loc true ist gl r
- | TacCall (loc,f,l) ->
- let fv = interp_ltac_reference loc true ist gl f
- and largs = List.map (interp_tacarg ist gl) l in
- List.iter check_is_value largs;
- interp_app loc ist gl fv largs
- | TacExternal (loc,com,req,la) ->
- interp_external loc ist gl com req (List.map (interp_tacarg ist gl) la)
- | TacFreshId l ->
- let id = pf_interp_fresh_id ist gl l in
- VIntroPattern (IntroIdentifier id)
- | Tacexp t -> val_interp ist gl t
- | TacDynamic(_,t) ->
- let tg = (Dyn.tag t) in
- if tg = "tactic" then
- val_interp ist gl (tactic_out t ist)
- else if tg = "value" then
- value_out t
- else if tg = "constr" then
+and interp_tacarg ist gl arg =
+ let evdref = ref (project gl) in
+ let v = match arg with
+ | TacVoid -> VVoid
+ | Reference r ->
+ let (sigma,v) = interp_ltac_reference dloc false ist gl r in
+ evdref := sigma;
+ v
+ | Integer n -> VInteger n
+ | IntroPattern ipat -> VIntroPattern (snd (interp_intro_pattern ist gl ipat))
+ | ConstrMayEval c ->
+ let (sigma,c_interp) = interp_constr_may_eval ist gl c in
+ evdref := sigma;
+ VConstr ([],c_interp)
+ | MetaIdArg (loc,_,id) -> assert false
+ | TacCall (loc,r,[]) ->
+ let (sigma,v) = interp_ltac_reference loc true ist gl r in
+ evdref := sigma;
+ v
+ | TacCall (loc,f,l) ->
+ let (sigma,fv) = interp_ltac_reference loc true ist gl f in
+ let (sigma,largs) =
+ List.fold_right begin fun a (sigma',acc) ->
+ let (sigma', a_interp) = interp_tacarg ist gl a in
+ sigma' , a_interp::acc
+ end l (sigma,[])
+ in
+ List.iter check_is_value largs;
+ let (sigma,v) = interp_app loc ist { gl with sigma=sigma } fv largs in
+ evdref:= sigma;
+ v
+ | TacExternal (loc,com,req,la) ->
+ let (sigma,la_interp) =
+ List.fold_right begin fun a (sigma,acc) ->
+ let (sigma,a_interp) = interp_tacarg ist {gl with sigma=sigma} a in
+ sigma , a_interp::acc
+ end la (project gl,[])
+ in
+ let (sigma,v) = interp_external loc ist { gl with sigma=sigma } com req la_interp in
+ evdref := sigma;
+ v
+ | TacFreshId l ->
+ let id = pf_interp_fresh_id ist gl l in
+ VIntroPattern (IntroIdentifier id)
+ | Tacexp t ->
+ let (sigma,v) = val_interp ist gl t in
+ evdref := sigma;
+ v
+ | TacDynamic(_,t) ->
+ let tg = (Dyn.tag t) in
+ if tg = "tactic" then
+ let (sigma,v) = val_interp ist gl (tactic_out t ist) in
+ evdref := sigma;
+ v
+ else if tg = "value" then
+ value_out t
+ else if tg = "constr" then
VConstr ([],constr_out t)
- else
- anomaly_loc (dloc, "Tacinterp.val_interp",
- (str "Unknown dynamic: <" ++ str (Dyn.tag t) ++ str ">"))
+ else
+ anomaly_loc (dloc, "Tacinterp.val_interp",
+ (str "Unknown dynamic: <" ++ str (Dyn.tag t) ++ str ">"))
+ in
+ !evdref , v
(* Interprets an application node *)
and interp_app loc ist gl fv largs =
@@ -1859,19 +1903,20 @@ and interp_app loc ist gl fv largs =
(TacFun _|TacLetIn _|TacMatchGoal _|TacMatch _| TacArg _ as body))) ->
let (newlfun,lvar,lval)=head_with_value (var,largs) in
if lvar=[] then
- let v =
+ let (sigma,v) =
try
catch_error trace
(val_interp {ist with lfun=newlfun@olfun; trace=trace} gl) body
with e ->
debugging_exception_step ist false e (fun () -> str "evaluation");
raise e in
+ let gl = { gl with sigma=sigma } in
debugging_step ist
(fun () ->
str"evaluation returns"++fnl()++pr_value (Some (pf_env gl)) v);
- if lval=[] then v else interp_app loc ist gl v lval
+ if lval=[] then sigma,v else interp_app loc ist gl v lval
else
- VFun(trace,newlfun@olfun,lvar,body)
+ project gl , VFun(trace,newlfun@olfun,lvar,body)
| _ ->
user_err_loc (loc, "Tacinterp.interp_app",
(str"Illegal tactic application."))
@@ -1894,10 +1939,12 @@ and tactic_of_value ist vle g =
(* Evaluation with FailError catching *)
and eval_with_fail ist is_lazy goal tac =
try
- (match val_interp ist goal tac with
+ let (sigma,v) = val_interp ist goal tac in
+ sigma ,
+ (match v with
| VFun (trace,lfun,[],t) when not is_lazy ->
let tac = eval_tactic {ist with lfun=lfun; trace=trace} t in
- VRTactic (catch_error trace tac goal)
+ VRTactic (catch_error trace tac { goal with sigma=sigma })
| a -> a)
with
| FailError (0,s) | Loc.Exc_located(_, FailError (0,s))
@@ -1919,10 +1966,15 @@ and interp_letrec ist gl llc u =
(* Interprets the clauses of a LetIn *)
and interp_letin ist gl llc u =
- let lve = list_map_left (fun ((_,id),body) ->
- let v = interp_tacarg ist gl body in check_is_value v; (id,v)) llc in
+ let (sigma,lve) =
+ List.fold_right begin fun ((_,id),body) (sigma,acc) ->
+ let (sigma,v) = interp_tacarg ist { gl with sigma=sigma } body in
+ check_is_value v;
+ sigma, (id,v)::acc
+ end llc (project gl,[])
+ in
let ist = { ist with lfun = lve@ist.lfun } in
- val_interp ist gl u
+ val_interp ist { gl with sigma=sigma } u
(* Interprets the Match Context expressions *)
and interp_match_goal ist goal lz lr lmr =
@@ -2015,80 +2067,103 @@ and interp_external loc ist gl com req la =
(* Interprets extended tactic generic arguments *)
and interp_genarg ist gl x =
- match genarg_tag x with
- | BoolArgType -> in_gen wit_bool (out_gen globwit_bool x)
- | IntArgType -> in_gen wit_int (out_gen globwit_int x)
- | IntOrVarArgType ->
+ let evdref = ref (project gl) in
+ let rec interp_genarg ist gl x =
+ let gl = { gl with sigma = !evdref } in
+ match genarg_tag x with
+ | BoolArgType -> in_gen wit_bool (out_gen globwit_bool x)
+ | IntArgType -> in_gen wit_int (out_gen globwit_int x)
+ | IntOrVarArgType ->
in_gen wit_int_or_var
(ArgArg (interp_int_or_var ist (out_gen globwit_int_or_var x)))
- | StringArgType ->
+ | StringArgType ->
in_gen wit_string (out_gen globwit_string x)
- | PreIdentArgType ->
+ | PreIdentArgType ->
in_gen wit_pre_ident (out_gen globwit_pre_ident x)
- | IntroPatternArgType ->
+ | IntroPatternArgType ->
in_gen wit_intro_pattern
(interp_intro_pattern ist gl (out_gen globwit_intro_pattern x))
- | IdentArgType b ->
+ | IdentArgType b ->
in_gen (wit_ident_gen b)
(pf_interp_fresh_ident ist gl (out_gen (globwit_ident_gen b) x))
- | VarArgType ->
+ | VarArgType ->
in_gen wit_var (interp_hyp ist gl (out_gen globwit_var x))
- | RefArgType ->
+ | RefArgType ->
in_gen wit_ref (pf_interp_reference ist gl (out_gen globwit_ref x))
- | SortArgType ->
+ | SortArgType ->
+ let (sigma,c_interp) =
+ pf_interp_constr ist gl
+ (GSort (dloc,out_gen globwit_sort x), None)
+ in
+ evdref := sigma;
in_gen wit_sort
- (destSort
- (pf_interp_constr ist gl
- (GSort (dloc,out_gen globwit_sort x), None)))
- | ConstrArgType ->
- in_gen wit_constr (pf_interp_constr ist gl (out_gen globwit_constr x))
- | ConstrMayEvalArgType ->
- in_gen wit_constr_may_eval (interp_constr_may_eval ist gl (out_gen globwit_constr_may_eval x))
- | QuantHypArgType ->
+ (destSort c_interp)
+ | ConstrArgType ->
+ let (sigma,c_interp) = pf_interp_constr ist gl (out_gen globwit_constr x) in
+ evdref := sigma;
+ in_gen wit_constr c_interp
+ | ConstrMayEvalArgType ->
+ let (sigma,c_interp) = interp_constr_may_eval ist gl (out_gen globwit_constr_may_eval x) in
+ evdref := sigma;
+ in_gen wit_constr_may_eval c_interp
+ | QuantHypArgType ->
in_gen wit_quant_hyp
(interp_declared_or_quantified_hypothesis ist gl
- (out_gen globwit_quant_hyp x))
- | RedExprArgType ->
- in_gen wit_red_expr (pf_interp_red_expr ist gl (out_gen globwit_red_expr x))
- | OpenConstrArgType casted ->
+ (out_gen globwit_quant_hyp x))
+ | RedExprArgType ->
+ let (sigma,r_interp) = pf_interp_red_expr ist gl (out_gen globwit_red_expr x) in
+ evdref := sigma;
+ in_gen wit_red_expr r_interp
+ | OpenConstrArgType casted ->
in_gen (wit_open_constr_gen casted)
(interp_open_constr (if casted then Some (pf_concl gl) else None)
- ist (pf_env gl) (project gl)
- (snd (out_gen (globwit_open_constr_gen casted) x)))
- | ConstrWithBindingsArgType ->
+ ist (pf_env gl) (project gl)
+ (snd (out_gen (globwit_open_constr_gen casted) x)))
+ | ConstrWithBindingsArgType ->
in_gen wit_constr_with_bindings
(pack_sigma (interp_constr_with_bindings ist (pf_env gl) (project gl)
- (out_gen globwit_constr_with_bindings x)))
- | BindingsArgType ->
+ (out_gen globwit_constr_with_bindings x)))
+ | BindingsArgType ->
in_gen wit_bindings
(pack_sigma (interp_bindings ist (pf_env gl) (project gl) (out_gen globwit_bindings x)))
- | List0ArgType ConstrArgType -> interp_genarg_constr_list0 ist gl x
- | List1ArgType ConstrArgType -> interp_genarg_constr_list1 ist gl x
- | List0ArgType VarArgType -> interp_genarg_var_list0 ist gl x
- | List1ArgType VarArgType -> interp_genarg_var_list1 ist gl x
- | List0ArgType _ -> app_list0 (interp_genarg ist gl) x
- | List1ArgType _ -> app_list1 (interp_genarg ist gl) x
- | OptArgType _ -> app_opt (interp_genarg ist gl) x
- | PairArgType _ -> app_pair (interp_genarg ist gl) (interp_genarg ist gl) x
- | ExtraArgType s ->
+ | List0ArgType ConstrArgType ->
+ let (sigma,v) = interp_genarg_constr_list0 ist gl x in
+ evdref := sigma;
+ v
+ | List1ArgType ConstrArgType ->
+ let (sigma,v) = interp_genarg_constr_list1 ist gl x in
+ evdref := sigma;
+ v
+ | List0ArgType VarArgType -> interp_genarg_var_list0 ist gl x
+ | List1ArgType VarArgType -> interp_genarg_var_list1 ist gl x
+ | List0ArgType _ -> app_list0 (interp_genarg ist gl) x
+ | List1ArgType _ -> app_list1 (interp_genarg ist gl) x
+ | OptArgType _ -> app_opt (interp_genarg ist gl) x
+ | PairArgType _ -> app_pair (interp_genarg ist gl) (interp_genarg ist gl) x
+ | ExtraArgType s ->
match tactic_genarg_level s with
| Some n ->
(* Special treatment of tactic arguments *)
- in_gen (wit_tactic n)
- (TacArg(dloc,valueIn(VFun(ist.trace,ist.lfun,[],
- out_gen (globwit_tactic n) x))))
+ in_gen (wit_tactic n)
+ (TacArg(dloc,valueIn(VFun(ist.trace,ist.lfun,[],
+ out_gen (globwit_tactic n) x))))
| None ->
- lookup_interp_genarg s ist gl x
+ let (sigma,v) = lookup_interp_genarg s ist gl x in
+ evdref:=sigma;
+ v
+ in
+ let v = interp_genarg ist gl x in
+ !evdref , v
and interp_genarg_constr_list0 ist gl x =
let lc = out_gen (wit_list0 globwit_constr) x in
- let lc = pf_apply (interp_constr_list ist) gl lc in
- in_gen (wit_list0 wit_constr) lc
+ let (sigma,lc) = pf_apply (interp_constr_list ist) gl lc in
+ sigma , in_gen (wit_list0 wit_constr) lc
and interp_genarg_constr_list1 ist gl x =
let lc = out_gen (wit_list1 globwit_constr) x in
- let lc = pf_apply (interp_constr_list ist) gl lc in
- in_gen (wit_list1 wit_constr) lc
+ let (sigma,lc) = pf_apply (interp_constr_list ist) gl lc in
+ sigma , in_gen (wit_list1 wit_constr) lc
and interp_genarg_var_list0 ist gl x =
let lc = out_gen (wit_list0 globwit_var) x in
@@ -2111,10 +2186,10 @@ and interp_match ist g lz constr lmr =
with e when is_match_catchable e ->
match_next_pattern find_next' () in
match_next_pattern (fun () -> match_subterm_gen app c csr) () in
- let rec apply_match ist csr = function
+ let rec apply_match ist sigma csr = let g = { g with sigma=sigma } in function
| (All t)::tl ->
(try eval_with_fail ist lz g t
- with e when is_match_catchable e -> apply_match ist csr tl)
+ with e when is_match_catchable e -> apply_match ist sigma csr tl)
| (Pat ([],Term c,mt))::tl ->
(try
let lmatch =
@@ -2134,31 +2209,31 @@ and interp_match ist g lz constr lmr =
raise e
with e when is_match_catchable e ->
debugging_step ist (fun () -> str "switching to the next rule");
- apply_match ist csr tl)
+ apply_match ist sigma csr tl)
| (Pat ([],Subterm (b,id,c),mt))::tl ->
(try apply_match_subterm b ist (id,c) csr mt
- with PatternMatchingFailure -> apply_match ist csr tl)
+ with PatternMatchingFailure -> apply_match ist sigma csr tl)
| _ ->
errorlabstrm "Tacinterp.apply_match" (str
"No matching clauses for match.") in
- let csr =
+ let (sigma,csr) =
try interp_ltac_constr ist g constr with e ->
debugging_exception_step ist true e
(fun () -> str "evaluation of the matched expression");
raise e in
- let ilr = read_match_rule (fst (extract_ltac_constr_values ist (pf_env g))) ist (pf_env g) (project g) lmr in
+ let ilr = read_match_rule (fst (extract_ltac_constr_values ist (pf_env g))) ist (pf_env g) sigma lmr in
let res =
- try apply_match ist csr ilr with e ->
+ try apply_match ist sigma csr ilr with e ->
debugging_exception_step ist true e (fun () -> str "match expression");
raise e in
debugging_step ist (fun () ->
- str "match expression returns " ++ pr_value (Some (pf_env g)) res);
+ str "match expression returns " ++ pr_value (Some (pf_env g)) (snd res));
res
(* Interprets tactic expressions : returns a "constr" *)
and interp_ltac_constr ist gl e =
- let result =
+ let (sigma, result) =
try val_interp ist gl e with Not_found ->
debugging_step ist (fun () ->
str "evaluation failed for" ++ fnl() ++
@@ -2171,7 +2246,7 @@ and interp_ltac_constr ist gl e =
str " has value " ++ fnl() ++
pr_constr_under_binders_env (pf_env gl) cresult);
if fst cresult <> [] then raise Not_found;
- snd cresult
+ sigma , snd cresult
with Not_found ->
errorlabstrm ""
(str "Must evaluate to a closed term" ++ fnl() ++
@@ -2204,7 +2279,8 @@ and interp_ltac_constr ist gl e =
(* Interprets tactic expressions : returns a "tactic" *)
and interp_tactic ist tac gl =
- tactic_of_value ist (val_interp ist gl tac) gl
+ let (sigma,v) = val_interp ist gl tac in
+ tactic_of_value ist v { gl with sigma=sigma }
(* Interprets a primitive tactic *)
and interp_atomic ist gl tac =
@@ -2219,9 +2295,21 @@ and interp_atomic ist gl tac =
h_intro_move (Option.map (interp_fresh_ident ist env) ido)
(interp_move_location ist gl hto)
| TacAssumption -> h_assumption
- | TacExact c -> h_exact (pf_interp_casted_constr ist gl c)
- | TacExactNoCheck c -> h_exact_no_check (pf_interp_constr ist gl c)
- | TacVmCastNoCheck c -> h_vm_cast_no_check (pf_interp_constr ist gl c)
+ | TacExact c ->
+ let (sigma,c_interp) = pf_interp_casted_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_exact c_interp)
+ | TacExactNoCheck c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_exact_no_check c_interp)
+ | TacVmCastNoCheck c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_vm_cast_no_check c_interp)
| TacApply (a,ev,cb,cl) ->
let sigma, l =
list_fold_map (interp_open_constr_with_bindings_loc ist env) sigma cb
@@ -2235,56 +2323,89 @@ and interp_atomic ist gl tac =
let sigma, cb = interp_constr_with_bindings ist env sigma cb in
let sigma, cbo = Option.fold_map (interp_constr_with_bindings ist env) sigma cbo in
tclWITHHOLES ev (h_elim ev cb) sigma cbo
- | TacElimType c -> h_elim_type (pf_interp_type ist gl c)
+ | TacElimType c ->
+ let (sigma,c_interp) = pf_interp_type ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_elim_type c_interp)
| TacCase (ev,cb) ->
let sigma, cb = interp_constr_with_bindings ist env sigma cb in
tclWITHHOLES ev (h_case ev) sigma cb
- | TacCaseType c -> h_case_type (pf_interp_type ist gl c)
+ | TacCaseType c ->
+ let (sigma,c_interp) = pf_interp_type ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_case_type c_interp)
| TacFix (idopt,n) -> h_fix (Option.map (interp_fresh_ident ist env) idopt) n
| TacMutualFix (b,id,n,l) ->
- let f (id,n,c) = (interp_fresh_ident ist env id,n,pf_interp_type ist gl c)
- in h_mutual_fix b (interp_fresh_ident ist env id) n (List.map f l)
+ let f sigma (id,n,c) =
+ let (sigma,c_interp) = pf_interp_type ist { gl with sigma=sigma } c in
+ sigma , (interp_fresh_ident ist env id,n,c_interp) in
+ let (sigma,l_interp) =
+ List.fold_right begin fun c (sigma,acc) ->
+ let (sigma,c_interp) = f sigma c in
+ sigma , c_interp::acc
+ end l (project gl,[])
+ in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_mutual_fix b (interp_fresh_ident ist env id) n l_interp)
| TacCofix idopt -> h_cofix (Option.map (interp_fresh_ident ist env) idopt)
| TacMutualCofix (b,id,l) ->
- let f (id,c) = (interp_fresh_ident ist env id,pf_interp_type ist gl c) in
- h_mutual_cofix b (interp_fresh_ident ist env id) (List.map f l)
- | TacCut c -> h_cut (pf_interp_type ist gl c)
+ let f sigma (id,c) =
+ let (sigma,c_interp) = pf_interp_type ist { gl with sigma=sigma } c in
+ sigma , (interp_fresh_ident ist env id,c_interp) in
+ let (sigma,l_interp) =
+ List.fold_right begin fun c (sigma,acc) ->
+ let (sigma,c_interp) = f sigma c in
+ sigma , c_interp::acc
+ end l (project gl,[])
+ in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_mutual_cofix b (interp_fresh_ident ist env id) l_interp)
+ | TacCut c ->
+ let (sigma,c_interp) = pf_interp_type ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_cut c_interp)
| TacAssert (t,ipat,c) ->
- let c = (if t=None then interp_constr else interp_type) ist env sigma c in
- abstract_tactic (TacAssert (t,ipat,c))
- (Tactics.forward (Option.map (interp_tactic ist) t)
- (Option.map (interp_intro_pattern ist gl) ipat) c)
+ let (sigma,c) = (if t=None then interp_constr else interp_type) ist env sigma c in
+ tclTHEN
+ (tclEVARS sigma)
+ (abstract_tactic (TacAssert (t,ipat,c))
+ (Tactics.forward (Option.map (interp_tactic ist) t)
+ (Option.map (interp_intro_pattern ist gl) ipat) c))
| TacGeneralize cl ->
let sigma, cl = interp_constr_with_occurrences_and_name_as_list ist env sigma cl in
tclWITHHOLES false (h_generalize_gen) sigma cl
- | TacGeneralizeDep c -> h_generalize_dep (pf_interp_constr ist gl c)
+ | TacGeneralizeDep c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_generalize_dep c_interp)
| TacLetTac (na,c,clp,b) ->
let clp = interp_clause ist gl clp in
if clp = nowhere then
(* We try to fully-typechect the term *)
- h_let_tac b (interp_fresh_name ist env na)
- (pf_interp_constr ist gl c) clp
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_let_tac b (interp_fresh_name ist env na) c_interp clp)
else
(* We try to keep the pattern structure as much as possible *)
h_let_pat_tac b (interp_fresh_name ist env na)
(interp_pure_open_constr ist env sigma c) clp
(* Automation tactics *)
- | TacTrivial (lems,l) ->
- Auto.h_trivial
+ | TacTrivial (debug,lems,l) ->
+ Auto.h_trivial ~debug
(interp_auto_lemmas ist env sigma lems)
(Option.map (List.map (interp_hint_base ist)) l)
- | TacAuto (n,lems,l) ->
- Auto.h_auto (Option.map (interp_int_or_var ist) n)
+ | TacAuto (debug,n,lems,l) ->
+ Auto.h_auto ~debug (Option.map (interp_int_or_var ist) n)
(interp_auto_lemmas ist env sigma lems)
(Option.map (List.map (interp_hint_base ist)) l)
- | TacAutoTDB n -> Dhyp.h_auto_tdb n
- | TacDestructHyp (b,id) -> Dhyp.h_destructHyp b (interp_hyp ist gl id)
- | TacDestructConcl -> Dhyp.h_destructConcl
- | TacSuperAuto (n,l,b1,b2) -> Auto.h_superauto n l b1 b2
- | TacDAuto (n,p,lems) ->
- Auto.h_dauto (Option.map (interp_int_or_var ist) n,p)
- (interp_auto_lemmas ist env sigma lems)
(* Derived basic tactics *)
| TacSimpleInductionDestruct (isrec,h) ->
@@ -2304,15 +2425,30 @@ and interp_atomic ist gl tac =
let h1 = interp_quantified_hypothesis ist h1 in
let h2 = interp_quantified_hypothesis ist h2 in
Elim.h_double_induction h1 h2
- | TacDecomposeAnd c -> Elim.h_decompose_and (pf_interp_constr ist gl c)
- | TacDecomposeOr c -> Elim.h_decompose_or (pf_interp_constr ist gl c)
+ | TacDecomposeAnd c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (Elim.h_decompose_and c_interp)
+ | TacDecomposeOr c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (Elim.h_decompose_or c_interp)
| TacDecompose (l,c) ->
let l = List.map (interp_inductive ist) l in
- Elim.h_decompose l (pf_interp_constr ist gl c)
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (Elim.h_decompose l c_interp)
| TacSpecialize (n,cb) ->
let sigma, cb = interp_constr_with_bindings ist env sigma cb in
tclWITHHOLES false (h_specialize n) sigma cb
- | TacLApply c -> h_lapply (pf_interp_constr ist gl c)
+ | TacLApply c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_lapply c_interp)
(* Context management *)
| TacClear (b,l) -> h_clear b (interp_hyp_list ist gl l)
@@ -2344,27 +2480,48 @@ and interp_atomic ist gl tac =
(* Conversion *)
| TacReduce (r,cl) ->
- h_reduce (pf_interp_red_expr ist gl r) (interp_clause ist gl cl)
+ let (sigma,r_interp) = pf_interp_red_expr ist gl r in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_reduce r_interp (interp_clause ist gl cl))
| TacChange (None,c,cl) ->
- h_change None
- (if (cl.onhyps = None or cl.onhyps = Some []) &
+ let (sigma,c_interp) =
+ if (cl.onhyps = None or cl.onhyps = Some []) &
(cl.concl_occs = all_occurrences_expr or
cl.concl_occs = no_occurrences_expr)
then pf_interp_type ist gl c
- else pf_interp_constr ist gl c)
- (interp_clause ist gl cl)
+ else pf_interp_constr ist gl c
+ in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_change None c_interp (interp_clause ist gl cl))
| TacChange (Some op,c,cl) ->
let sign,op = interp_typed_pattern ist env sigma op in
- h_change (Some op)
- (try pf_interp_constr ist (extend_gl_hyps gl sign) c
- with Not_found | Anomaly _ (* Hack *) ->
- errorlabstrm "" (strbrk "Failed to get enough information from the left-hand side to type the right-hand side."))
- (interp_clause ist gl cl)
+ (* spiwack: (2012/04/18) the evar_map output by pf_interp_constr
+ is dropped as the evar_map taken as input (from
+ extend_gl_hyps) is incorrect. This means that evar
+ instantiated by pf_interp_constr may be lost, there. *)
+ let (_,c_interp) =
+ try pf_interp_constr ist (extend_gl_hyps gl sign) c
+ with Not_found | Anomaly _ (* Hack *) ->
+ errorlabstrm "" (strbrk "Failed to get enough information from the left-hand side to type the right-hand side.")
+ in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_change (Some op) c_interp (interp_clause ist { gl with sigma=sigma } cl))
(* Equivalence relations *)
| TacReflexivity -> h_reflexivity
| TacSymmetry c -> h_symmetry (interp_clause ist gl c)
- | TacTransitivity c -> h_transitivity (Option.map (pf_interp_constr ist gl) c)
+ | TacTransitivity c ->
+ begin match c with
+ | None -> h_transitivity None
+ | Some c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ tclTHEN
+ (tclEVARS sigma)
+ (h_transitivity (Some c_interp))
+ end
(* Equality and inversion *)
| TacRewrite (ev,l,cl,by) ->
@@ -2375,7 +2532,14 @@ and interp_atomic ist gl tac =
Equality.general_multi_multi_rewrite ev l cl
(Option.map (fun by -> tclCOMPLETE (interp_tactic ist by), Equality.Naive) by)
| TacInversion (DepInversion (k,c,ids),hyp) ->
- Inv.dinv k (Option.map (pf_interp_constr ist gl) c)
+ let (sigma,c_interp) =
+ match c with
+ | None -> sigma , None
+ | Some c ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
+ sigma , Some c_interp
+ in
+ Inv.dinv k c_interp
(Option.map (interp_intro_pattern ist gl) ids)
(interp_declared_or_quantified_hypothesis ist gl hyp)
| TacInversion (NonDepInversion (k,idl,ids),hyp) ->
@@ -2384,16 +2548,23 @@ and interp_atomic ist gl tac =
(interp_hyp_list ist gl idl)
(interp_declared_or_quantified_hypothesis ist gl hyp)
| TacInversion (InversionUsing (c,idl),hyp) ->
+ let (sigma,c_interp) = pf_interp_constr ist gl c in
Leminv.lemInv_clause (interp_declared_or_quantified_hypothesis ist gl hyp)
- (pf_interp_constr ist gl c)
+ c_interp
(interp_hyp_list ist gl idl)
(* For extensions *)
| TacExtend (loc,opn,l) ->
let tac = lookup_tactic opn in
- let args = List.map (interp_genarg ist gl) l in
+ let (sigma,args) =
+ List.fold_right begin fun a (sigma,acc) ->
+ let (sigma,a_interp) = interp_genarg ist { gl with sigma=sigma } a in
+ sigma , a_interp::acc
+ end l (project gl,[])
+ in
abstract_extended_tactic opn args (tac args)
| TacAlias (loc,s,l,(_,body)) -> fun gl ->
+ let evdref = ref gl.sigma in
let rec f x = match genarg_tag x with
| IntArgType ->
VInteger (out_gen globwit_int x)
@@ -2415,17 +2586,34 @@ and interp_atomic ist gl tac =
| SortArgType ->
VConstr ([],mkSort (interp_sort (out_gen globwit_sort x)))
| ConstrArgType ->
- mk_constr_value ist gl (out_gen globwit_constr x)
+ let (sigma,v) = mk_constr_value ist gl (out_gen globwit_constr x) in
+ evdref := sigma;
+ v
+ | OpenConstrArgType false ->
+ let (sigma,v) = mk_open_constr_value ist gl (snd (out_gen globwit_open_constr x)) in
+ evdref := sigma;
+ v
| ConstrMayEvalArgType ->
- VConstr
- ([],interp_constr_may_eval ist gl (out_gen globwit_constr_may_eval x))
+ let (sigma,c_interp) = interp_constr_may_eval ist gl (out_gen globwit_constr_may_eval x) in
+ evdref := sigma;
+ VConstr ([],c_interp)
| ExtraArgType s when tactic_genarg_level s <> None ->
(* Special treatment of tactic arguments *)
- val_interp ist gl
+ let (sigma,v) = val_interp ist gl
(out_gen (globwit_tactic (Option.get (tactic_genarg_level s))) x)
+ in
+ evdref := sigma;
+ v
| List0ArgType ConstrArgType ->
let wit = wit_list0 globwit_constr in
- VList (List.map (mk_constr_value ist gl) (out_gen wit x))
+ let (sigma,l_interp) =
+ List.fold_right begin fun c (sigma,acc) ->
+ let (sigma,c_interp) = mk_constr_value ist { gl with sigma=sigma } c in
+ sigma , c_interp::acc
+ end (out_gen wit x) (project gl,[])
+ in
+ evdref := sigma;
+ VList (l_interp)
| List0ArgType VarArgType ->
let wit = wit_list0 globwit_var in
VList (List.map (mk_hyp_value ist gl) (out_gen wit x))
@@ -2445,7 +2633,14 @@ and interp_atomic ist gl tac =
VList (List.map mk_ipat (out_gen wit x))
| List1ArgType ConstrArgType ->
let wit = wit_list1 globwit_constr in
- VList (List.map (mk_constr_value ist gl) (out_gen wit x))
+ let (sigma, l_interp) =
+ List.fold_right begin fun c (sigma,acc) ->
+ let (sigma,c_interp) = mk_constr_value ist { gl with sigma=sigma } c in
+ sigma , c_interp::acc
+ end (out_gen wit x) (project gl,[])
+ in
+ evdref:=sigma;
+ VList l_interp
| List1ArgType VarArgType ->
let wit = wit_list1 globwit_var in
VList (List.map (mk_hyp_value ist gl) (out_gen wit x))
@@ -2469,17 +2664,22 @@ and interp_atomic ist gl tac =
| ExtraArgType _ | BindingsArgType
| OptArgType _ | PairArgType _
| List0ArgType _ | List1ArgType _
- -> error "This generic type is not supported in alias."
+ -> error "This argument type is not supported in tactic notations."
in
let lfun = (List.map (fun (x,c) -> (x,f c)) l)@ist.lfun in
let trace = push_trace (loc,LtacNotationCall s) ist.trace in
+ let gl = { gl with sigma = !evdref } in
interp_tactic { ist with lfun=lfun; trace=trace } body gl
let make_empty_glob_sign () =
{ ltacvars = ([],[]); ltacrecvars = [];
gsigma = Evd.empty; genv = Global.env() }
+let fully_empty_glob_sign =
+ { ltacvars = ([],[]); ltacrecvars = [];
+ gsigma = Evd.empty; genv = Environ.empty_env }
+
(* Initial call for interpretation *)
let interp_tac_gen lfun avoid_ids debug t gl =
interp_tactic { lfun=lfun; avoid_ids=avoid_ids; debug=debug; trace=[] }
@@ -2488,6 +2688,7 @@ let interp_tac_gen lfun avoid_ids debug t gl =
gsigma = project gl; genv = pf_env gl } t) gl
let eval_tactic t gls =
+ db_initialize ();
interp_tactic { lfun=[]; avoid_ids=[]; debug=get_debug(); trace=[] }
t gls
@@ -2641,13 +2842,8 @@ let rec subst_atomic subst (t:glob_atomic_tactic_expr) = match t with
| TacLetTac (id,c,clp,b) -> TacLetTac (id,subst_glob_constr subst c,clp,b)
(* Automation tactics *)
- | TacTrivial (lems,l) -> TacTrivial (List.map (subst_glob_constr subst) lems,l)
- | TacAuto (n,lems,l) -> TacAuto (n,List.map (subst_glob_constr subst) lems,l)
- | TacAutoTDB n -> TacAutoTDB n
- | TacDestructHyp (b,id) -> TacDestructHyp(b,id)
- | TacDestructConcl -> TacDestructConcl
- | TacSuperAuto (n,l,b1,b2) -> TacSuperAuto (n,l,b1,b2)
- | TacDAuto (n,p,lems) -> TacDAuto (n,p,List.map (subst_glob_constr subst) lems)
+ | TacTrivial (d,lems,l) -> TacTrivial (d,List.map (subst_glob_constr subst) lems,l)
+ | TacAuto (d,n,lems,l) -> TacAuto (d,n,List.map (subst_glob_constr subst) lems,l)
(* Derived basic tactics *)
| TacSimpleInductionDestruct (isrec,h) as x -> x
@@ -2991,4 +3187,3 @@ let _ = Auto.set_extern_intern_tac
Flags.with_option strict_check
(intern_pure_tactic {(make_empty_glob_sign()) with ltacvars=(l,[])}))
let _ = Auto.set_extern_subst_tactic subst_tactic
-let _ = Dhyp.set_extern_interp eval_tactic