open ProofEngineTypes
open UriManager
-open HelmLibraryObjects
-
(** DEBUGGING *)
(** perform debugging output? *)
let debug_print = fun _ -> ()
(** debugging print *)
-let warn s =
- if debug then
- debug_print ("RING WARNING: " ^ s)
+let warn s = debug_print (lazy ("RING WARNING: " ^ (Lazy.force s)))
(** CIC URIS *)
*)
let ringable =
let is_equality = function
- | Cic.MutInd (uri, 0, []) when (eq uri Logic.eq_URI) -> true
+ | Cic.MutInd (uri, 0, []) when (eq uri HelmLibraryObjects.Logic.eq_URI) -> true
| _ -> false
in
let is_real = function
- | Cic.Const (uri, _) when (eq uri Reals.r_URI) -> true
+ | Cic.Const (uri, _) when (eq uri HelmLibraryObjects.Reals.r_URI) -> true
| _ -> false
in
function
| Cic.Appl (app::set::_::_::[]) when (is_equality app && is_real set) ->
- warn "Goal Ringable!";
+ warn (lazy "Goal Ringable!");
true
| _ ->
- warn "Goal Not Ringable :-((";
+ warn (lazy "Goal Not Ringable :-((");
false
(**
*)
let split_eq = function
| (Cic.Appl (_::_::t1::t2::[])) as term when ringable term ->
- warn ("<term1>" ^ (CicPp.ppterm t1) ^ "</term1>");
- warn ("<term2>" ^ (CicPp.ppterm t2) ^ "</term2>");
+ warn (lazy ("<term1>" ^ (CicPp.ppterm t1) ^ "</term1>"));
+ warn (lazy ("<term2>" ^ (CicPp.ppterm t2) ^ "</term2>"));
(t1, t2)
| _ -> raise GoalUnringable
@return a cic term representing the variable map containing vars variables
*)
let btree_of_array ~vars =
- let r = Reals.r in
+ let r = HelmLibraryObjects.Reals.r in
let empty_vm_r = mkCtor empty_vm_uri [quote_varmap_A_uri,r] in
let node_vm_r = mkCtor node_vm_uri [quote_varmap_A_uri,r] in
let size = Array.length vars in
let rec aux = function (* TODO not tail recursive *)
(* "bop" -> binary operator | "uop" -> unary operator *)
| Cic.Appl (bop::t1::t2::[])
- when (cic_is_const ~uri:(Some Reals.rplus_URI) bop) -> (* +. *)
+ when (cic_is_const ~uri:(Some HelmLibraryObjects.Reals.rplus_URI) bop) -> (* +. *)
Cic.Appl [mkCtor applus_uri []; aux t1; aux t2]
| Cic.Appl (bop::t1::t2::[])
- when (cic_is_const ~uri:(Some Reals.rmult_URI) bop) -> (* *. *)
+ when (cic_is_const ~uri:(Some HelmLibraryObjects.Reals.rmult_URI) bop) -> (* *. *)
Cic.Appl [mkCtor apmult_uri []; aux t1; aux t2]
| Cic.Appl (uop::t::[])
- when (cic_is_const ~uri:(Some Reals.ropp_URI) uop) -> (* ~-. *)
+ when (cic_is_const ~uri:(Some HelmLibraryObjects.Reals.ropp_URI) uop) -> (* ~-. *)
Cic.Appl [mkCtor apopp_uri []; aux t]
- | t when (cic_is_const ~uri:(Some Reals.r0_URI) t) -> (* 0. *)
+ | t when (cic_is_const ~uri:(Some HelmLibraryObjects.Reals.r0_URI) t) -> (* 0. *)
mkCtor ap0_uri []
- | t when (cic_is_const ~uri:(Some Reals.r1_URI) t) -> (* 1. *)
+ | t when (cic_is_const ~uri:(Some HelmLibraryObjects.Reals.r1_URI) t) -> (* 1. *)
mkCtor ap1_uri []
| t -> (* variable *)
try
*)
let build_segments ~terms =
let theory_args_subst varmap =
- [abstract_rings_A_uri, Reals.r ;
- abstract_rings_Aplus_uri, Reals.rplus ;
- abstract_rings_Amult_uri, Reals.rmult ;
- abstract_rings_Aone_uri, Reals.r1 ;
- abstract_rings_Azero_uri, Reals.r0 ;
- abstract_rings_Aopp_uri, Reals.ropp ;
+ [abstract_rings_A_uri, HelmLibraryObjects.Reals.r ;
+ abstract_rings_Aplus_uri, HelmLibraryObjects.Reals.rplus ;
+ abstract_rings_Amult_uri, HelmLibraryObjects.Reals.rmult ;
+ abstract_rings_Aone_uri, HelmLibraryObjects.Reals.r1 ;
+ abstract_rings_Azero_uri, HelmLibraryObjects.Reals.r0 ;
+ abstract_rings_Aopp_uri, HelmLibraryObjects.Reals.ropp ;
abstract_rings_vm_uri, varmap] in
let theory_args_subst' eq varmap t =
- [abstract_rings_A_uri, Reals.r ;
- abstract_rings_Aplus_uri, Reals.rplus ;
- abstract_rings_Amult_uri, Reals.rmult ;
- abstract_rings_Aone_uri, Reals.r1 ;
- abstract_rings_Azero_uri, Reals.r0 ;
- abstract_rings_Aopp_uri, Reals.ropp ;
+ [abstract_rings_A_uri, HelmLibraryObjects.Reals.r ;
+ abstract_rings_Aplus_uri, HelmLibraryObjects.Reals.rplus ;
+ abstract_rings_Amult_uri, HelmLibraryObjects.Reals.rmult ;
+ abstract_rings_Aone_uri, HelmLibraryObjects.Reals.r1 ;
+ abstract_rings_Azero_uri, HelmLibraryObjects.Reals.r0 ;
+ abstract_rings_Aopp_uri, HelmLibraryObjects.Reals.ropp ;
abstract_rings_Aeq_uri, eq ;
abstract_rings_vm_uri, varmap ;
abstract_rings_T_uri, t] in
let apolynomial_normalize_ok eq varmap t =
mkConst apolynomial_normalize_ok_uri (theory_args_subst' eq varmap t) in
let lxy_false = (** Cic funcion "fun (x,y):R -> false" *)
- Cic.Lambda (Cic.Anonymous, Reals.r,
- Cic.Lambda (Cic.Anonymous, Reals.r, Datatypes.falseb))
+ Cic.Lambda (Cic.Anonymous, HelmLibraryObjects.Reals.r,
+ Cic.Lambda (Cic.Anonymous, HelmLibraryObjects.Reals.r, HelmLibraryObjects.Datatypes.falseb))
in
let (aterms, varmap) = abstract_poly ~terms in (* abstract polys *)
List.map (* build ring segments *)
Cic.Appl [interp_ap varmap ; t],
Cic.Appl (
[interp_sacs varmap ; Cic.Appl [apolynomial_normalize; t]]),
- Cic.Appl [apolynomial_normalize_ok lxy_false varmap Reals.rtheory ; t]
+ Cic.Appl [apolynomial_normalize_ok lxy_false varmap HelmLibraryObjects.Reals.rtheory ; t]
) aterms
function
proof,[goal] -> proof,goal
| _ ->
- raise (Fail "status_of_single_goal_tactic_result: the tactic did not produce exactly a new goal")
+ raise (Fail (lazy "status_of_single_goal_tactic_result: the tactic did not produce exactly a new goal"))
(* Galla: spostata in variousTactics.ml
(**
@param term term to cut
*)
let elim_type_tac ~term status =
- warn "in Ring.elim_type_tac";
+ warn (lazy "in Ring.elim_type_tac");
Tacticals.thens ~start:(cut_tac ~term)
~continuations:[elim_simpl_intros_tac ~term:(Cic.Rel 1) ; Tacticals.id_tac] status
*)
@param term term to cut
@param proof term used to prove second subgoal generated by elim_type
*)
+(* FG: METTERE I NOMI ANCHE QUI? *)
let elim_type2_tac ~term ~proof =
let elim_type2_tac ~term ~proof status =
let module E = EliminationTactics in
- warn "in Ring.elim_type2";
+ warn (lazy "in Ring.elim_type2");
ProofEngineTypes.apply_tactic
- (Tacticals.thens ~start:(E.elim_type_tac ~term)
+ (Tacticals.thens ~start:(E.elim_type_tac term)
~continuations:[Tacticals.id_tac ; exact_tac ~term:proof]) status
in
ProofEngineTypes.mk_tactic (elim_type2_tac ~term ~proof)
@param status current proof engine status
*)
let reflexivity_tac (proof, goal) =
- warn "in Ring.reflexivity_tac";
+ warn (lazy "in Ring.reflexivity_tac");
let refl_eqt = mkCtor ~uri:refl_eqt_uri ~exp_named_subst:[] in
try
apply_tac (proof, goal) ~term:refl_eqt
let ring_tac status =
let (proof, goal) = status in
- warn "in Ring tactic";
- let eqt = mkMutInd (Logic.eq_URI, 0) [] in
- let r = Reals.r in
+ warn (lazy "in Ring tactic");
+ let eqt = mkMutInd (HelmLibraryObjects.Logic.eq_URI, 0) [] in
+ let r = HelmLibraryObjects.Reals.r in
let metasenv = metasenv_of_status status in
let (metano, context, ty) = CicUtil.lookup_meta goal metasenv in
let (t1, t2) = split_eq ty in (* goal like t1 = t2 *)
match (build_segments ~terms:[t1; t2]) with
| (t1', t1'', t1'_eq_t1'')::(t2', t2'', t2'_eq_t2'')::[] -> begin
+ if debug then
List.iter (* debugging, feel free to remove *)
(fun (descr, term) ->
- warn (descr ^ " " ^ (CicPp.ppterm term)))
+ warn (lazy (descr ^ " " ^ (CicPp.ppterm term))))
(List.combine
["t1"; "t1'"; "t1''"; "t1'_eq_t1''";
"t2"; "t2'"; "t2''"; "t2'_eq_t2''"]
try
let new_hyps = ref 0 in (* number of new hypotheses created *)
ProofEngineTypes.apply_tactic
- (Tacticals.try_tactics
+ (Tacticals.first
~tactics:[
"reflexivity", EqualityTactics.reflexivity_tac ;
"exact t1'_eq_t1''", exact_tac ~term:t1'_eq_t1'' ;
"exact sym_eqt su t1 ...", exact_tac
~term:(
Cic.Appl
- [mkConst Logic.sym_eq_URI
- [equality_is_a_congruence_A, Reals.r;
+ [mkConst HelmLibraryObjects.Logic.sym_eq_URI
+ [equality_is_a_congruence_A, HelmLibraryObjects.Reals.r;
equality_is_a_congruence_x, t1'' ;
equality_is_a_congruence_y, t1
] ;
let b,_ = (*TASSI : FIXME*)
are_convertible context t1'' t1 CicUniv.empty_ugraph in
if not b then begin
- warn "t1'' and t1 are NOT CONVERTIBLE";
+ warn (lazy "t1'' and t1 are NOT CONVERTIBLE");
let newstatus =
ProofEngineTypes.apply_tactic
(elim_type2_tac (* 1st elim_type use *)
(proof,[goal]) -> proof,goal
| _ -> assert false
end else begin
- warn "t1'' and t1 are CONVERTIBLE";
+ warn (lazy "t1'' and t1 are CONVERTIBLE");
status
end
in
in
let status'' =
ProofEngineTypes.apply_tactic
- (Tacticals.try_tactics (* try to solve 1st subgoal *)
+ (Tacticals.first (* try to solve 1st subgoal *)
~tactics:[
"exact t2'_eq_t2''", exact_tac ~term:t2'_eq_t2'';
"exact sym_eqt su t2 ...",
exact_tac
~term:(
Cic.Appl
- [mkConst Logic.sym_eq_URI
- [equality_is_a_congruence_A, Reals.r;
+ [mkConst HelmLibraryObjects.Logic.sym_eq_URI
+ [equality_is_a_congruence_A, HelmLibraryObjects.Reals.r;
equality_is_a_congruence_x, t2'' ;
equality_is_a_congruence_y, t2
] ;
are_convertible context t2'' t2 CicUniv.empty_ugraph
in
if not b then begin
- warn "t2'' and t2 are NOT CONVERTIBLE";
+ warn (lazy "t2'' and t2 are NOT CONVERTIBLE");
let newstatus =
ProofEngineTypes.apply_tactic
(elim_type2_tac (* 2nd elim_type use *)
(proof,[goal]) -> proof,goal
| _ -> assert false
end else begin
- warn "t2'' and t2 are CONVERTIBLE";
+ warn (lazy "t2'' and t2 are CONVERTIBLE");
status
end
in
try (* try to solve main goal *)
- warn "trying reflexivity ....";
+ warn (lazy "trying reflexivity ....");
ProofEngineTypes.apply_tactic
EqualityTactics.reflexivity_tac status'
with (Fail _) -> (* leave conclusion to the user *)
- warn "reflexivity failed, solution's left as an ex :-)";
+ warn (lazy "reflexivity failed, solution's left as an ex :-)");
ProofEngineTypes.apply_tactic
(purge_hyps_tac ~count:!new_hyps) status')])
status'
status'')])
status
with (Fail s) ->
- raise (Fail ("Ring failure: " ^ s))
+ raise (Fail (lazy ("Ring failure: " ^ Lazy.force s)))
end
| _ -> (* impossible: we are applying ring exacty to 2 terms *)
assert false
try
ring_tac status
with GoalUnringable ->
- raise (Fail "goal unringable")
+ raise (Fail (lazy "goal unringable"))
let ring_tac = ProofEngineTypes.mk_tactic ring_tac
projects / helm.git / blobdiff