baseuri
in
let new_coercions =
- List.filter (fun (s,t,u,saturations,obj) -> not(already_in_obj s t u obj))
+ List.filter (fun (s,t,u,_,obj,_) -> not(already_in_obj s t u obj))
new_coercions
in
- let composite_uris = List.map (fun (_,_,uri,_,_) -> uri) new_coercions in
+ let composite_uris = List.map (fun (_,_,uri,_,_,_) -> uri) new_coercions in
(* update the DB *)
List.iter
- (fun (src,tgt,uri,saturations,_) ->
+ (fun (src,tgt,uri,saturations,_,_) ->
CoercDb.add_coercion (src,tgt,uri,saturations))
new_coercions;
CoercDb.add_coercion (src_carr, tgt_carr, uri, saturations);
let lemmas =
if add_composites then
List.fold_left
- (fun acc (_,tgt,uri,saturations,obj) ->
+ (fun acc (_,tgt,uri,saturations,obj,arity) ->
add_single_obj uri obj refinement_toolkit;
- let arity = match tgt with CoercDb.Fun n -> n | _ -> 0 in
(uri,arity,saturations)::acc)
[] new_coercions
else
* (source, list of coercions to follow, target)
*)
let get_closure_coercions src tgt uri coercions =
+ let enrich (uri,sat) tgt =
+ let arity = match tgt with CoercDb.Fun n -> n | _ -> 0 in
+ uri,sat,arity
+ in
+ let uri = enrich uri tgt in
let eq_carr ?exact s t =
try
CoercDb.eq_carr ?exact s t
(HExtlib.flatten_map
(fun (_,t,ul) ->
if eq_carr ~exact:true src t then [] else
- List.map (fun u -> src,[uri; u],t) ul) c_from_tgt) @
+ List.map (fun u -> src,[uri; enrich u t],t) ul) c_from_tgt) @
(HExtlib.flatten_map
- (fun (s,_,ul) ->
+ (fun (s,t,ul) ->
if eq_carr ~exact:true s tgt then [] else
- List.map (fun u -> s,[u; uri],tgt) ul) c_to_src) @
+ List.map (fun u -> s,[enrich u t; uri],tgt) ul) c_to_src) @
(HExtlib.flatten_map
- (fun (s,_,u1l) ->
+ (fun (s,t1,u1l) ->
HExtlib.flatten_map
(fun (_,t,u2l) ->
HExtlib.flatten_map
|| eq_carr ~exact:true src t
then [] else
List.map
- (fun u2 -> (s,[u1;uri;u2],t))
+ (fun u2 -> (s,[enrich u1 t1;uri;enrich u2 t],t))
u2l)
u1l)
c_from_tgt)
exception UnableToCompose
(* generate_composite (c2 (c1 s)) in the universe graph univ
- * both living in the same context and metasenv *)
-let generate_composite' (c1,sat1) (c2,sat2) context metasenv univ arity =
+ both living in the same context and metasenv
+
+ c2 ?p2 (c1 ?p1 ?x ?s1) ?s2
+
+ where:
+ ?pn + 1 + ?sn = count_pi n - arity n
+*)
+let generate_composite' (c1,sat1,arity1) (c2,sat2,arity2) context metasenv univ=
let original_metasenv = metasenv in
let c1_ty,univ = CicTypeChecker.type_of_aux' metasenv context c1 univ in
let c2_ty,univ = CicTypeChecker.type_of_aux' metasenv context c2 univ in
debug_print (lazy ("\nCOMPOSING"));
debug_print (lazy (" c1= "^CicPp.ppterm c1 ^" : "^ CicPp.ppterm c1_ty));
debug_print (lazy (" c2= "^CicPp.ppterm c2 ^" : "^ CicPp.ppterm c2_ty));
- let c1_pis, names_c1 = count_pis c1_ty 0 in
- let c2_pis, names_c2 = count_pis c2_ty arity in
+ let c1_pis, names_c1 = count_pis c1_ty arity1 in
+ let c2_pis, names_c2 = count_pis c2_ty arity2 in
let c = compose c1 c1_pis c2 c2_pis in
let spine_len = c1_pis + c2_pis in
let c = mk_lambda_spine c (namer (names_c1 @ names_c2)) spine_len in
CicRefine.insert_coercions := old_insert_coercions;
raise exn
in
- c, metasenv, univ, saturationsres
+ c, metasenv, univ, saturationsres, arity2
;;
let build_obj c univ arity =
CoercDb.eq_carr s src &&
CoercDb.eq_carr t tgt &&
try
- List.for_all2 (fun (u1,_) (u2,_) -> UriManager.eq u1 u2) l1 l2
+ List.for_all2 (fun (u1,_,_) (u2,_) -> UriManager.eq u1 u2) l1 l2
with
| Invalid_argument "List.for_all2" -> false)
coercions))
try
(match l with
| [] -> assert false
- | (he,saturations1) :: tl ->
- let arity = match tgt with CoercDb.Fun n -> n | _ -> 0 in
+ | (he,saturations1,arity1) :: tl ->
let first_step =
Cic.Constant ("",
- Some (CoercDb.term_of_carr (CoercDb.Uri he)),
- Cic.Sort Cic.Prop, [], obj_attrs arity), saturations1
+ Some (CoercDb.term_of_carr (CoercDb.Uri he)),
+ Cic.Sort Cic.Prop, [], obj_attrs arity1),
+ saturations1,
+ arity1
in
let o,_ =
- List.fold_left (fun (o,univ) (coer,saturations) ->
+ List.fold_left (fun (o,univ) (coer,saturations2,arity2) ->
match o with
- | Cic.Constant (_,Some u,_,[],_),saturations1 ->
- let t, menv, univ, saturationsres =
- generate_composite' (u,saturations1)
+ | Cic.Constant (_,Some u,_,[],_),saturations1,arity1 ->
+ let t, menv, univ, saturationsres, arityres =
+ generate_composite' (u,saturations1,arity1)
(CoercDb.term_of_carr (CoercDb.Uri coer),
- saturations) [] [] univ arity
+ saturations2, arity2) [] [] univ
in
if (menv = []) then
HLog.warn "MENV non empty after composing coercions";
- let o,univ = build_obj t univ arity in
- (o,saturationsres),univ
+ let o,univ = build_obj t univ arityres in
+ (o,saturationsres,arityres),univ
| _ -> assert false
) (first_step, CicUniv.empty_ugraph) tl
in
let name_src = CoercDb.name_of_carr src in
let name_tgt = CoercDb.name_of_carr tgt in
- let by = List.map (fun u,_ -> UriManager.name_of_uri u) l in
+ let by = List.map (fun u,_,_ -> UriManager.name_of_uri u) l in
let name = mangle name_tgt name_src by in
let c_uri =
number_if_already_defined baseuri name
- (List.map (fun (_,_,u,_,_) -> u) acc)
+ (List.map (fun (_,_,u,_,_,_) -> u) acc)
in
- let named_obj,saturations =
+ let named_obj,saturations,arity =
match o with
- | Cic.Constant (_,bo,ty,vl,attrs),saturations ->
- Cic.Constant (name,bo,ty,vl,attrs),saturations
+ | Cic.Constant (_,bo,ty,vl,attrs),saturations,arity ->
+ Cic.Constant (name,bo,ty,vl,attrs),saturations,arity
| _ -> assert false
in
- (src,tgt,c_uri,saturations,named_obj))::acc
+ (src,tgt,c_uri,saturations,named_obj,arity))::acc
with UnableToCompose -> acc
) [] todo_list
in
(* generate_composite (c2 (c1 s)) in the universe graph univ
* both living in the same context and metasenv *)
-let generate_composite c1 c2 context metasenv univ arity =
- let a,b,c,_ =
- generate_composite' (c1,0) (c2,0) context metasenv univ arity
+let generate_composite c1 c2 context metasenv univ sat2 =
+ let a,b,c,_,_ =
+ generate_composite' (c1,0,0) (c2,sat2,0) context metasenv univ
in
a,b,c
;;