package coq-core
The Coq Proof Assistant -- Core Binaries and Tools
Install
Dune Dependency
Authors
Maintainers
Sources
coq-8.18.0.tar.gz
md5=8d852367b54f095d9fbabd000304d450
sha512=46922d5f2eb6802a148a52fd3e7f0be8370c93e7bc33cee05cf4a2044290845b10ccddbaa306f29c808e7c5019700763e37e45ff6deb507b874a4348010fed50
doc/src/coq-core.vernac/printmod.ml.html
Source file printmod.ml
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(************************************************************************) (* * The Coq Proof Assistant / The Coq Development Team *) (* v * Copyright INRIA, CNRS and contributors *) (* <O___,, * (see version control and CREDITS file for authors & dates) *) (* \VV/ **************************************************************) (* // * This file is distributed under the terms of the *) (* * GNU Lesser General Public License Version 2.1 *) (* * (see LICENSE file for the text of the license) *) (************************************************************************) open Util open Constr open Context open Pp open Names open Declarations open Libnames open Goptions (** Note: there is currently two modes for printing modules. - The "short" one, that just prints the names of the fields. - The "rich" one, that also tries to print the types of the fields. The short version used to be the default behavior, but now we print types by default. The following option allows changing this. *) module Tag = struct let definition = "module.definition" let keyword = "module.keyword" end let tag t s = Pp.tag t s let tag_definition s = tag Tag.definition s let tag_keyword s = tag Tag.keyword s type short = OnlyNames | WithContents let short = ref false let () = declare_bool_option { optstage = Summary.Stage.Interp; optdepr = None; optkey = ["Short";"Module";"Printing"]; optread = (fun () -> !short) ; optwrite = ((:=) short) } (** Each time we have to print a non-globally visible structure, we place its elements in a fake fresh namespace. *) let mk_fake_top = let r = ref 0 in fun () -> incr r; Id.of_string ("FAKETOP"^(string_of_int !r)) let def s = tag_definition (str s) let keyword s = tag_keyword (str s) let get_new_id locals id = let rec get_id l id = let dir = DirPath.make [id] in if not (Nametab.exists_module dir || Nametab.exists_dir dir) then id else get_id (Id.Set.add id l) (Namegen.next_ident_away id l) in let avoid = List.fold_left (fun accu (_, id) -> Id.Set.add id accu) Id.Set.empty locals in get_id avoid id (** Inductive declarations *) open Reduction let print_params env sigma params = if List.is_empty params then mt () else Printer.pr_rel_context env sigma params ++ brk(1,2) let print_constructors envpar sigma names types = let pc = prlist_with_sep (fun () -> brk(1,0) ++ str "| ") (fun (id,c) -> Id.print id ++ str " : " ++ Printer.pr_lconstr_env envpar sigma c) (Array.to_list (Array.map2 (fun n t -> (n,t)) names types)) in hv 0 (str " " ++ pc) let build_ind_type mip = Inductive.type_of_inductive mip let get_fields = let rec prodec_rec l subst c = match kind c with | Prod (na,t,c) -> let id = match na.binder_name with Name id -> id | Anonymous -> Id.of_string "_" in prodec_rec ((id,true,Vars.substl subst t)::l) (mkVar id::subst) c | LetIn (na,b,_,c) -> let id = match na.binder_name with Name id -> id | Anonymous -> Id.of_string "_" in prodec_rec ((id,false,Vars.substl subst b)::l) (mkVar id::subst) c | _ -> List.rev l in prodec_rec [] [] let print_fields envpar sigma cstrtypes = let fields = get_fields cstrtypes.(0) in hv 2 (str "{ " ++ prlist_with_sep (fun () -> str ";" ++ brk(2,0)) (fun (id,b,c) -> Id.print id ++ str (if b then " : " else " := ") ++ Printer.pr_lconstr_env envpar sigma c) fields) ++ str" }" let print_one_inductive env sigma isrecord mib ((_,i) as ind) = let u = Univ.make_abstract_instance (Declareops.inductive_polymorphic_context mib) in let mip = mib.mind_packets.(i) in let paramdecls = Inductive.inductive_paramdecls (mib,u) in let env_params, params = Namegen.make_all_rel_context_name_different env (Evd.from_env env) (EConstr.of_rel_context paramdecls) in let params = EConstr.Unsafe.to_rel_context params in let nparamdecls = Context.Rel.length params in let args = Context.Rel.instance_list mkRel 0 params in let arity = hnf_prod_applist_decls env nparamdecls (build_ind_type ((mib,mip),u)) args in let cstrtypes = Inductive.type_of_constructors (ind,u) (mib,mip) in let cstrtypes = Array.map (fun c -> hnf_prod_applist_decls env nparamdecls c args) cstrtypes in if isrecord then assert (Array.length cstrtypes = 1); let inst = if Declareops.inductive_is_polymorphic mib then Printer.pr_universe_instance sigma u else mt () in hov 0 ( Id.print mip.mind_typename ++ inst ++ brk(1,4) ++ print_params env sigma params ++ str ": " ++ Printer.pr_lconstr_env env_params sigma arity ++ str " :=" ++ if isrecord then str " " ++ Id.print mip.mind_consnames.(0) else mt()) ++ if not isrecord then brk(0,2) ++ print_constructors env_params sigma mip.mind_consnames cstrtypes else brk(1,2) ++ print_fields env_params sigma cstrtypes let pr_mutual_inductive_body env mind mib udecl = let inds = List.init (Array.length mib.mind_packets) (fun x -> (mind, x)) in let keyword, isrecord = let open Declarations in match mib.mind_finite with | Finite -> "Inductive", false | CoFinite -> "CoInductive", false | BiFinite -> match mib.mind_record with | FakeRecord when not !Flags.raw_print -> "Record", true | PrimRecord _ -> "Record", true | FakeRecord | NotRecord -> "Variant", false in let bl = Printer.universe_binders_with_opt_names (Declareops.inductive_polymorphic_context mib) udecl in let sigma = Evd.from_ctx (UState.of_names bl) in hov 0 (def keyword ++ spc () ++ prlist_with_sep (fun () -> fnl () ++ str" with ") (print_one_inductive env sigma isrecord mib) inds ++ str "." ++ Printer.pr_universes sigma ?variance:mib.mind_variance mib.mind_universes) (** Modpaths *) let rec print_local_modpath locals = function | MPbound mbid -> Id.print (Util.List.assoc_f MBId.equal mbid locals) | MPdot(mp,l) -> print_local_modpath locals mp ++ str "." ++ Label.print l | MPfile _ -> raise Not_found let print_modpath locals mp = try (* must be with let because streams are lazy! *) let qid = Nametab.shortest_qualid_of_module mp in pr_qualid qid with | Not_found -> print_local_modpath locals mp let print_kn locals kn = try let qid = Nametab.shortest_qualid_of_modtype kn in pr_qualid qid with Not_found -> try print_local_modpath locals kn with Not_found -> print_modpath locals kn let nametab_register_dir obj_mp = let id = mk_fake_top () in let obj_dir = DirPath.make [id] in Nametab.(push_module (Until 1) obj_dir obj_mp) (** Nota: the [global_reference] we register in the nametab below might differ from internal ones, since we cannot recreate here the canonical part of constant and inductive names, but only the user names. This works nonetheless since we search now [Nametab.the_globrevtab] modulo user name. *) let nametab_register_body mp dir (l,body) = let push id ref = Nametab.push (Nametab.Until (1+List.length (DirPath.repr dir))) (make_path dir id) ref in match body with | SFBmodule _ -> () (* TODO *) | SFBmodtype _ -> () (* TODO *) | SFBconst _ -> push (Label.to_id l) (GlobRef.ConstRef (Constant.make2 mp l)) | SFBmind mib -> let mind = MutInd.make2 mp l in Array.iteri (fun i mip -> push mip.mind_typename (GlobRef.IndRef (mind,i)); Array.iteri (fun j id -> push id (GlobRef.ConstructRef ((mind,i),j+1))) mip.mind_consnames) mib.mind_packets (* TODO only import printing-relevant objects (or find a way to print without importing) *) let import_module = Declaremods.Interp.import_module Libobject.unfiltered let process_module_binding = Declaremods.process_module_binding let nametab_register_module_body mp struc = (* If [mp] is a globally visible module, we simply import it *) try import_module ~export:Lib.Import mp with Not_found -> (* Otherwise we try to emulate an import by playing with nametab *) nametab_register_dir mp; List.iter (nametab_register_body mp DirPath.empty) struc let get_typ_expr_alg mtb = match mtb.mod_type_alg with | Some (MENoFunctor me) -> me | _ -> raise Not_found let nametab_register_modparam used mbid mtb = let id = MBId.to_id mbid in match mtb.mod_type with | MoreFunctor _ -> id (* functorial param : nothing to register *) | NoFunctor struc -> (* We first try to use the algebraic type expression if any, via a Declaremods function that converts back to module entries *) try let () = process_module_binding mbid (get_typ_expr_alg mtb) in id with e when CErrors.noncritical e -> (* Otherwise, we try to play with the nametab ourselves *) let mp = MPbound mbid in let check id = Id.Set.mem id used || Nametab.exists_module (DirPath.make [id]) in let id = Namegen.next_ident_away_from id check in let dir = DirPath.make [id] in nametab_register_dir mp; List.iter (nametab_register_body mp dir) struc; id let print_body is_impl extent env mp (l,body) = let name = Label.print l in hov 2 (match body with | SFBmodule _ -> keyword "Module" ++ spc () ++ name | SFBmodtype _ -> keyword "Module Type" ++ spc () ++ name | SFBconst cb -> let ctx = Declareops.constant_polymorphic_context cb in (match cb.const_body with | Def _ -> def "Definition" ++ spc () | OpaqueDef _ when is_impl -> def "Theorem" ++ spc () | _ -> def "Parameter" ++ spc ()) ++ name ++ (match extent with | OnlyNames -> mt () | WithContents -> let bl = Printer.universe_binders_with_opt_names ctx None in let sigma = Evd.from_ctx (UState.of_names bl) in str " :" ++ spc () ++ hov 0 (Printer.pr_ltype_env env sigma cb.const_type) ++ (match cb.const_body with | Def l when is_impl -> spc () ++ hov 2 (str ":= " ++ Printer.pr_lconstr_env env sigma l) | _ -> mt ()) ++ str "." ++ Printer.pr_abstract_universe_ctx sigma ctx) | SFBmind mib -> match extent with | WithContents -> pr_mutual_inductive_body env (MutInd.make2 mp l) mib None | OnlyNames -> let keyword = let open Declarations in match mib.mind_finite with | Finite -> def "Inductive" | BiFinite -> def "Variant" | CoFinite -> def "CoInductive" in keyword ++ spc () ++ name) let print_struct is_impl extent env mp struc = prlist_with_sep spc (print_body is_impl extent env mp) struc let print_structure is_type extent env mp locals struc = let env' = Modops.add_structure mp struc Mod_subst.empty_delta_resolver env in nametab_register_module_body mp struc; let kwd = if is_type then "Sig" else "Struct" in hv 2 (keyword kwd ++ spc () ++ print_struct false extent env' mp struc ++ brk (1,-2) ++ keyword "End") let rec flatten_app mexpr l = match mexpr with | MEapply (mexpr, arg) -> flatten_app mexpr (arg::l) | MEident mp -> mp::l | MEwith _ -> assert false let rec print_typ_expr extent env mp locals mty = match mty with | MEident kn -> print_kn locals kn | MEapply _ -> let lapp = flatten_app mty [] in let fapp = List.hd lapp in let mapp = List.tl lapp in hov 3 (str"(" ++ (print_kn locals fapp) ++ spc () ++ prlist_with_sep spc (print_modpath locals) mapp ++ str")") | MEwith(me,WithDef(idl,(c, _)))-> let s = String.concat "." (List.map Id.to_string idl) in let body = match extent with | WithContents -> let sigma = Evd.from_env env in spc() ++ str ":=" ++ spc() ++ Printer.pr_lconstr_env env sigma c | OnlyNames -> mt() in hov 2 (print_typ_expr extent env mp locals me ++ spc() ++ str "with" ++ spc() ++ def "Definition"++ spc() ++ str s ++ body) | MEwith(me,WithMod(idl,mp'))-> let s = String.concat "." (List.map Id.to_string idl) in let body = match extent with | WithContents -> spc() ++ str ":="++ spc() ++ print_modpath locals mp' | OnlyNames -> mt () in hov 2 (print_typ_expr extent env mp locals me ++ spc() ++ str "with" ++ spc() ++ keyword "Module"++ spc() ++ str s ++ body) let print_mod_expr env mp locals = function | MEident mp -> print_modpath locals mp | MEapply _ as me -> let lapp = flatten_app me [] in hov 3 (str"(" ++ prlist_with_sep spc (print_modpath locals) lapp ++ str")") | MEwith _ -> assert false (* No 'with' syntax for modules *) let rec print_functor fty fatom is_type extent env mp used locals = function | NoFunctor me -> fatom is_type extent env mp locals me | MoreFunctor (mbid,mtb1,me2) -> let id = nametab_register_modparam !used mbid mtb1 in let () = used := Id.Set.add id !used in let mp1 = MPbound mbid in let pr_mtb1 = fty extent env mp1 used locals mtb1 in let env' = Modops.add_module_type mp1 mtb1 env in let locals' = (mbid, get_new_id locals (MBId.to_id mbid))::locals in let kwd = if is_type then "Funsig" else "Functor" in hov 2 (keyword kwd ++ spc () ++ str "(" ++ Id.print id ++ str ":" ++ pr_mtb1 ++ str ")" ++ spc() ++ print_functor fty fatom is_type extent env' mp used locals' me2) let rec print_expression x = print_functor print_modtype (function true -> print_typ_expr | false -> fun _ -> print_mod_expr) x and print_signature x = print_functor print_modtype print_structure x and print_modtype extent env mp used locals mtb = match mtb.mod_type_alg with | Some me -> let me = Modops.annotate_module_expression me mtb.mod_type in print_expression true extent env mp used locals me | None -> print_signature true extent env mp used locals mtb.mod_type (** Since we might play with nametab above, we should reset to prior state after the printing *) let print_expression' is_type extent env mp me = Vernacstate.System.protect (fun e -> print_expression is_type extent env mp (ref Id.Set.empty) [] e) me let print_signature' is_type extent env mp me = Vernacstate.System.protect (fun e -> print_signature is_type extent env mp (ref Id.Set.empty) [] e) me let unsafe_print_module extent env mp with_body mb = let name = print_modpath [] mp in let pr_equals = spc () ++ str ":= " in let body = match with_body, mb.mod_expr with | false, _ | true, Abstract -> mt() | _, Algebraic me -> let me = Modops.annotate_module_expression me mb.mod_type in pr_equals ++ print_expression' false extent env mp me | _, Struct sign -> let sign = Modops.annotate_struct_body sign mb.mod_type in pr_equals ++ print_signature' false extent env mp sign | _, FullStruct -> pr_equals ++ print_signature' false extent env mp mb.mod_type in let modtype = match mb.mod_expr, mb.mod_type_alg with | FullStruct, _ -> mt () | _, Some ty -> let ty = Modops.annotate_module_expression ty mb.mod_type in brk (1,1) ++ str": " ++ print_expression' true extent env mp ty | _, _ -> brk (1,1) ++ str": " ++ print_signature' true extent env mp mb.mod_type in hv 0 (keyword "Module" ++ spc () ++ name ++ modtype ++ body) exception ShortPrinting let print_module ~with_body mp = let me = Global.lookup_module mp in try if !short then raise ShortPrinting; unsafe_print_module WithContents (Global.env ()) mp with_body me ++ fnl () with e when CErrors.noncritical e -> unsafe_print_module OnlyNames (Global.env ()) mp with_body me ++ fnl () let print_modtype kn = let mtb = Global.lookup_modtype kn in let name = print_kn [] kn in hv 1 (keyword "Module Type" ++ spc () ++ name ++ str " =" ++ spc () ++ try if !short then raise ShortPrinting; print_signature' true WithContents (Global.env ()) kn mtb.mod_type with e when CErrors.noncritical e -> print_signature' true OnlyNames (Global.env ()) kn mtb.mod_type)
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