package coq-core
The Coq Proof Assistant -- Core Binaries and Tools
Install
Dune Dependency
Authors
Maintainers
Sources
coq-8.17.1.tar.gz
sha512=9a35311acec2a806730b94ac7dceabc88837f235c52a14c026827d9b89433bd7fa9555a9fc6829aa49edfedb24c8bbaf1411ebf463b74a50aeb17cba47745b6b
doc/src/coq-core.vernac/declareUniv.ml.html
Source file declareUniv.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 Names open Univ (* object_kind , id *) exception AlreadyDeclared of (string option * Id.t) let _ = CErrors.register_handler (function | AlreadyDeclared (kind, id) -> Some Pp.(seq [ Pp.pr_opt_no_spc (fun s -> str s ++ spc ()) kind ; Id.print id; str " already exists."]) | _ -> None) type universe_source = | BoundUniv (* polymorphic universe, bound in a function (this will go away someday) *) | QualifiedUniv of Id.t (* global universe introduced by some global value *) | UnqualifiedUniv (* other global universe *) type universe_name_decl = universe_source * (Id.t * Univ.UGlobal.t) list let check_exists_universe sp = if Nametab.exists_universe sp then raise (AlreadyDeclared (Some "Universe", Libnames.basename sp)) else () let qualify_univ i dp src id = match src with | BoundUniv | UnqualifiedUniv -> i, Libnames.make_path dp id | QualifiedUniv l -> let dp = DirPath.repr dp in Nametab.map_visibility succ i, Libnames.make_path (DirPath.make (l::dp)) id let do_univ_name ~check i dp src (id,univ) = let i, sp = qualify_univ i dp src id in if check then check_exists_universe sp; Nametab.push_universe i sp univ let cache_univ_names (prefix, (src, univs)) = let depth = Lib.sections_depth () in let dp = Libnames.pop_dirpath_n depth prefix.Nametab.obj_dir in List.iter (do_univ_name ~check:true (Nametab.Until 1) dp src) univs let load_univ_names i (prefix, (src, univs)) = List.iter (do_univ_name ~check:false (Nametab.Until i) prefix.Nametab.obj_dir src) univs let open_univ_names i (prefix, (src, univs)) = List.iter (do_univ_name ~check:false (Nametab.Exactly i) prefix.Nametab.obj_dir src) univs let discharge_univ_names = function | BoundUniv, _ -> None | (QualifiedUniv _ | UnqualifiedUniv), _ as x -> Some x let input_univ_names : universe_name_decl -> Libobject.obj = let open Libobject in declare_named_object_gen { (default_object "Global universe name state") with cache_function = cache_univ_names; load_function = load_univ_names; open_function = simple_open open_univ_names; discharge_function = discharge_univ_names; subst_function = (fun (subst, a) -> (* Actually the name is generated once and for all. *) a); classify_function = (fun a -> Substitute) } let input_univ_names (src, l) = if CList.is_empty l then () else Lib.add_leaf (input_univ_names (src, l)) let invent_name (named,cnt) u = let rec aux i = let na = Id.of_string ("u"^(string_of_int i)) in if Id.Map.mem na named then aux (i+1) else na, (Id.Map.add na u named, i+1) in aux cnt let label_of = let open GlobRef in function | ConstRef c -> Label.to_id @@ Constant.label c | IndRef (c,_) -> Label.to_id @@ MutInd.label c | VarRef id -> id | ConstructRef _ -> CErrors.anomaly ~label:"declare_univ_binders" Pp.(str "declare_univ_binders on a constructor reference") let declare_univ_binders gr (univs, pl) = let l = label_of gr in match univs with | UState.Polymorphic_entry _ -> () | UState.Monomorphic_entry (levels, _) -> (* First the explicitly named universes *) let named, univs = Id.Map.fold (fun id univ (named,univs) -> let univs = match Univ.Level.name univ with | None -> assert false (* having Prop/Set/Var as binders is nonsense *) | Some univ -> (id,univ)::univs in let named = Level.Set.add univ named in named, univs) pl (Level.Set.empty,[]) in (* then invent names for the rest *) let _, univs = Level.Set.fold (fun univ (aux,univs) -> let id, aux = invent_name aux univ in let univ = Option.get (Level.name univ) in aux, (id,univ) :: univs) (Level.Set.diff levels named) ((pl,0),univs) in input_univ_names (QualifiedUniv l, univs) let do_universe ~poly l = let in_section = Global.sections_are_opened () in let () = if poly && not in_section then CErrors.user_err (Pp.str"Cannot declare polymorphic universes outside sections.") in let l = List.map (fun {CAst.v=id} -> (id, UnivGen.new_univ_global ())) l in let ctx = List.fold_left (fun ctx (_,qid) -> Univ.Level.Set.add (Univ.Level.make qid) ctx) Univ.Level.Set.empty l, Univ.Constraints.empty in let src = if poly then BoundUniv else UnqualifiedUniv in let () = input_univ_names (src, l) in DeclareUctx.declare_universe_context ~poly ctx let do_constraint ~poly l = let open Univ in let evd = Evd.from_env (Global.env ()) in let constraints = List.fold_left (fun acc cst -> let cst = Constrintern.interp_univ_constraint evd cst in Constraints.add cst acc) Constraints.empty l in let uctx = ContextSet.add_constraints constraints ContextSet.empty in DeclareUctx.declare_universe_context ~poly uctx
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