package coq-lsp
Language Server Protocol native server for Coq
Install
Dune Dependency
Authors
Maintainers
Sources
coq-lsp-0.1.7.8.18.tbz
sha256=c68fcee8101b40a1706c74ce2ca0386311aebb79ec1a96032fb51bc8b981314f
sha512=720ca5ba4f265d942232e8c2a85bd475f03bf7a592e1b9d6dfbd8c68689275ef2224b82310578bf430ad6b192ba5430ab11a62ef2524e3859c157a9680ac391b
doc/src/coq-lsp.coq/ast.ml.html
Source file ast.ml
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(* module Vernacexpr = Serlib.Ser_vernacexpr *) type t = Vernacexpr.vernac_control let hash x = Serlib.Ser_vernacexpr.hash_vernac_control x let compare x y = Serlib.Ser_vernacexpr.compare_vernac_control x y let to_coq x = x let of_coq x = x let loc { CAst.loc; _ } = loc (* Printer is very fiddly w.r.t. state, especially when used for debug, so we just let it fail for now. *) let print x = try Ppvernac.pr_vernac x with _ -> Pp.str "XXX Coq printer crashed" module Id = struct type t = Names.Id.t let of_string = Names.Id.of_string let of_coq x = x let to_coq x = x module Set = Names.Id.Set module Map = Names.Id.Map end module Kinds = struct (* LSP kinds *) let _file = 1 let _module_ = 2 let _namespace = 3 let _package = 4 let class_ = 5 let method_ = 6 let _property = 7 let field = 8 let _constructor = 9 let enum = 10 let _interface = 11 let function_ = 12 let variable = 13 let _constant = 14 let _string = 15 let _number = 16 let _boolean = 17 let _array = 18 let _object = 19 let _key = 20 let _null = 21 let enumMember = 22 let struct_ = 23 let _event = 24 let _operator = 25 let _typeParameter = 26 end let marshal_in ic : t = Marshal.from_channel ic let marshal_out oc v = Marshal.to_channel oc v [] let pp_loc ?(print_file = false) fmt loc = let open Loc in let file = if print_file then match loc.fname with | ToplevelInput -> "Toplevel input: " | InFile { file; _ } -> "File \"" ^ file ^ "\": " else "" in Format.fprintf fmt "%sline: %d, col: %d -- line: %d, col: %d / {%d-%d}" file (loc.line_nb - 1) (loc.bp - loc.bol_pos) (loc.line_nb_last - 1) (loc.ep - loc.bol_pos_last) loc.bp loc.ep let loc_to_string ?print_file loc = Format.asprintf "%a" (pp_loc ?print_file) loc open CAst open Vernacexpr let inductive_detail = function | Inductive_kw -> (Kinds.enum, "Inductive") | CoInductive -> (Kinds.enum, "CoInductive") | Variant -> (Kinds.struct_, "Variant") | Record -> (Kinds.struct_, "Record") | Structure -> (Kinds.struct_, "Structure") | Class _ -> (Kinds.class_, "Class") let assumption_detail = function | Decls.Definitional -> "Variable" | Logical -> "Axiom" | Conjectural -> "Parameter" | Context -> "Context" let definition_detail = function | Decls.Definition -> "Definition" | Coercion -> "Coercion" | SubClass -> "SubClass" | CanonicalStructure -> "CanonicalStructure" | Example -> "Example" | Fixpoint -> "Fixpoint" | CoFixpoint -> "CoFixpoint" | Scheme -> "Scheme" | StructureComponent -> "StructureComponent" | IdentityCoercion -> "IdentityCoercion" | Instance -> "Instance" | Method -> "Method" | Let -> "Let" let theorem_detail = function | Decls.Theorem -> "Theorem" | Lemma -> "Lemma" | Fact -> "Fact" | Remark -> "Remark" | Property -> "Property" | Proposition -> "Proposition" | Corollary -> "Corollary" let name_to_string = function | Names.Anonymous -> None | Names.Name id -> Some (Names.Id.to_string id) let mk_name ~lines (id : Names.lname) : Lang.Ast.Name.t Lang.With_range.t = CAst.with_loc_val (fun ?loc id -> let loc = Option.get loc in let range = Utils.to_range ~lines loc in let v = name_to_string id in Lang.With_range.{ range; v }) id let mk_id ~lines (id : Names.lident) = CAst.map (fun id -> Names.Name id) id |> mk_name ~lines let constructor_info ~lines ((_, (id, _typ)) : constructor_expr) = let range = Option.get id.loc in let range = Utils.to_range ~lines range in let name = mk_id ~lines id in let detail = "Constructor" in let kind = Kinds.enumMember in Lang.Ast.Info.make ~range ~name ~detail ~kind () let local_decl_expr_info ~lines ~kind ~detail (l : local_decl_expr) = let name = match l with | AssumExpr (ln, _, _) -> mk_name ~lines ln | DefExpr (ln, _, _, _) -> mk_name ~lines ln in let range = name.range in Lang.Ast.Info.make ~range ~name ~kind ~detail () let projection_info ~lines ((ld, _) : local_decl_expr * record_field_attr_unparsed) = let kind = Kinds.field in let detail = "Field" in local_decl_expr_info ~lines ~detail ~kind ld let inductive_info ~lines ~range ikind (expr, _) = let (_, (id, _)), _, _, cons = expr in let name = mk_id ~lines id in match cons with | Constructors ci -> let children = List.map (constructor_info ~lines) ci in let kind, detail = inductive_detail ikind in Lang.Ast.Info.make ~range ~name ~kind ~detail ~children () | RecordDecl (_, pi, _) -> let children = List.map (projection_info ~lines) pi in let kind, detail = inductive_detail ikind in Lang.Ast.Info.make ~range ~name ~kind ~detail ~children () let inductives_info ~lines ~range ikind idecls = match idecls with | [] -> None | inds -> Some (List.map (inductive_info ~lines ~range ikind) inds) let ident_decl_info ~lines ~kind ~detail (lident, _) = let range = Option.get lident.loc in let range = Utils.to_range ~lines range in let name = mk_id ~lines lident in Lang.Ast.Info.make ~range ~name ~detail ~kind () let assumption_info ~lines kind (_, (ids, _)) = let detail = assumption_detail kind in let kind = Kinds.variable in List.map (ident_decl_info ~lines ~kind ~detail) ids let fixpoint_info ~lines ~range { fname; _ } = let name = mk_id ~lines fname in let detail = "Fixpoint" in Lang.Ast.Info.make ~range ~name ~detail ~kind:Kinds.function_ () let make_info ~st:_ ~lines CAst.{ loc; v } : Lang.Ast.Info.t list option = let open Vernacexpr in match loc with | None -> None | Some range -> ( let range = Utils.to_range ~lines range in (* TODO: sections *) match v.expr with | VernacSynPure (VernacDefinition ((_, kind), (name, _), _)) -> let name = mk_name ~lines name in let detail = definition_detail kind in let kind = Kinds.function_ in Some [ Lang.Ast.Info.make ~range ~name ~detail ~kind () ] | VernacSynPure (VernacStartTheoremProof (kind, ndecls)) -> ( let detail = theorem_detail kind in let kind = Kinds.function_ in match ndecls with | ((id, _), _) :: _ -> let name = mk_id ~lines id in Some [ Lang.Ast.Info.make ~range ~name ~detail ~kind () ] | [] -> None) | VernacSynPure (VernacInductive (ikind, idecls)) -> inductives_info ~lines ~range ikind idecls | VernacSynPure (VernacAssumption ((_, kind), _, ids)) -> Some (List.concat_map (assumption_info ~lines kind) ids) | VernacSynPure (VernacFixpoint (_, f_expr)) -> Some (List.map (fixpoint_info ~lines ~range) f_expr) | VernacSynPure (VernacInstance ((name, _), _, _, _, _)) -> let name = mk_name ~lines name in let kind = Kinds.method_ in let detail = "Instance" in Some [ Lang.Ast.Info.make ~range ~name ~kind ~detail () ] | _ -> None)
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