CicPp.ppterm t ^ " =/=> " ^ CicPp.ppterm newt);
assert false
| Uncertain _ ->
- prerr_endline ("#### Coercion not packed (Uncercatin case): " ^
+ prerr_endline ("#### Coercion not packed (Uncerctain case): " ^
CicPp.ppterm t ^ " =/=> " ^ CicPp.ppterm newt);
assert false)
| _ -> assert false) (* the composite coercion must exist *)
;;
(* sara' piu' veloce che raffinare da zero? mah.... *)
-let pack_coercion metasenv t =
+let pack_coercion metasenv ctx t =
let module C = Cic in
let rec merge_coercions ctx =
let aux = (fun (u,t) -> u,merge_coercions ctx t) in
let pl = List.map (merge_coercions ctx) pl in
C.MutCase (uri,tyno,merge_coercions ctx out, merge_coercions ctx te, pl)
| C.Fix (fno, fl) ->
- let ctx =
+ let ctx' =
List.fold_left
(fun l (n,_,ty,_) -> (Some (C.Name n,C.Decl ty))::l)
ctx fl
let fl =
List.map
(fun (name,idx,ty,bo) ->
- (name,idx,merge_coercions ctx ty,merge_coercions ctx bo))
+ (name,idx,merge_coercions ctx ty,merge_coercions ctx' bo))
fl
in
C.Fix (fno, fl)
| C.CoFix (fno, fl) ->
- let ctx =
+ let ctx' =
List.fold_left
(fun l (n,ty,_) -> (Some (C.Name n,C.Decl ty))::l)
ctx fl
let fl =
List.map
(fun (name,ty,bo) ->
- (name, merge_coercions ctx ty, merge_coercions ctx bo))
+ (name, merge_coercions ctx ty, merge_coercions ctx' bo))
fl
in
C.CoFix (fno, fl)
in
- merge_coercions [] t
+ merge_coercions ctx t
;;
let pack_coercion_obj obj =
let body =
match body with
| None -> None
- | Some body -> Some (pack_coercion [] body)
+ | Some body -> Some (pack_coercion [] [] body)
in
- let ty = pack_coercion [] ty in
+ let ty = pack_coercion [] [] ty in
C.Constant (id, body, ty, params, attrs)
| C.Variable (name, body, ty, params, attrs) ->
let body =
match body with
| None -> None
- | Some body -> Some (pack_coercion [] body)
+ | Some body -> Some (pack_coercion [] [] body)
in
- let ty = pack_coercion [] ty in
+ let ty = pack_coercion [] [] ty in
C.Variable (name, body, ty, params, attrs)
| C.CurrentProof (name, conjectures, body, ty, params, attrs) ->
let conjectures =
List.map
(fun (i, ctx, ty) ->
let ctx =
- List.map
- (function
- | Some (name, C.Decl t) ->
- Some (name, C.Decl (pack_coercion conjectures t))
- | Some (name, C.Def (t,None)) ->
- Some (name, C.Def (pack_coercion conjectures t, None))
- | Some (name, C.Def (t,Some ty)) ->
- Some (name, C.Def (pack_coercion conjectures t,
- Some (pack_coercion conjectures ty)))
- | None -> None)
- ctx
+ List.fold_right
+ (fun item ctx ->
+ let item' =
+ match item with
+ Some (name, C.Decl t) ->
+ Some (name, C.Decl (pack_coercion conjectures ctx t))
+ | Some (name, C.Def (t,None)) ->
+ Some (name,C.Def (pack_coercion conjectures ctx t,None))
+ | Some (name, C.Def (t,Some ty)) ->
+ Some (name, C.Def (pack_coercion conjectures ctx t,
+ Some (pack_coercion conjectures ctx ty)))
+ | None -> None
+ in
+ item'::ctx
+ ) ctx []
in
- ((i,ctx,pack_coercion conjectures ty)))
- conjectures
+ ((i,ctx,pack_coercion conjectures ctx ty))
+ ) conjectures
in
- let body = pack_coercion conjectures body in
- let ty = pack_coercion conjectures ty in
+ let body = pack_coercion conjectures [] body in
+ let ty = pack_coercion conjectures [] ty in
C.CurrentProof (name, conjectures, body, ty, params, attrs)
| C.InductiveDefinition (indtys, params, leftno, attrs) ->
let indtys =
List.map
(fun (name, ind, arity, cl) ->
- let arity = pack_coercion [] arity in
+ let arity = pack_coercion [] [] arity in
let cl =
- List.map (fun (name, ty) -> (name,pack_coercion [] ty)) cl
+ List.map (fun (name, ty) -> (name,pack_coercion [] [] ty)) cl
in
(name, ind, arity, cl))
indtys