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
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doc/src/extraction_plugin/miniml.ml.html
Source file miniml.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) *) (************************************************************************) (*s Target language for extraction: a core ML called MiniML. *) open Names (* The [signature] type is used to know how many arguments a CIC object expects, and what these arguments will become in the ML object. *) (* We eliminate from terms: 1) types 2) logical parts 3) user-declared implicit arguments of a constant of constructor *) type kill_reason = | Ktype | Kprop | Kimplicit of GlobRef.t * int (* n-th arg of a cst or construct *) type sign = Keep | Kill of kill_reason (* Convention: outmost lambda/product gives the head of the list. *) type signature = sign list (*s ML type expressions. *) type ml_type = | Tarr of ml_type * ml_type | Tglob of GlobRef.t * ml_type list | Tvar of int | Tvar' of int (* same as Tvar, used to avoid clash *) | Tmeta of ml_meta (* used during ML type reconstruction *) | Tdummy of kill_reason | Tunknown | Taxiom and ml_meta = { id : int; mutable contents : ml_type option } (* ML type schema. The integer is the number of variable in the schema. *) type ml_schema = int * ml_type (*s ML inductive types. *) type inductive_kind = | Singleton | Coinductive | Standard | Record of GlobRef.t option list (* None for anonymous field *) (* A [ml_ind_packet] is the miniml counterpart of a [one_inductive_body]. If the inductive is logical ([ip_logical = false]), then all other fields are unused. Otherwise, [ip_sign] is a signature concerning the arguments of the inductive, [ip_vars] contains the names of the type variables surviving in ML, [ip_types] contains the ML types of all constructors. *) type ml_ind_packet = { ip_typename : Id.t; ip_consnames : Id.t array; ip_logical : bool; ip_sign : signature; ip_vars : Id.t list; ip_types : (ml_type list) array } (* [ip_nparams] contains the number of parameters. *) type equiv = | NoEquiv | Equiv of KerName.t | RenEquiv of string type ml_ind = { ind_kind : inductive_kind; ind_nparams : int; ind_packets : ml_ind_packet array; ind_equiv : equiv } (*s ML terms. *) type ml_ident = | Dummy | Id of Id.t | Tmp of Id.t (** We now store some typing information on constructors and cases to avoid type-unsafe optimisations. This will be either the type of the applied constructor or the type of the head of the match. *) (** Nota : the constructor [MLtuple] and the extension of [MLcase] to general patterns have been proposed by P.N. Tollitte for his Relation Extraction plugin. [MLtuple] is currently not used by the main extraction, as well as deep patterns. *) type ml_branch = ml_ident list * ml_pattern * ml_ast and ml_ast = | MLrel of int | MLapp of ml_ast * ml_ast list | MLlam of ml_ident * ml_ast | MLletin of ml_ident * ml_ast * ml_ast | MLglob of GlobRef.t | MLcons of ml_type * GlobRef.t * ml_ast list | MLtuple of ml_ast list | MLcase of ml_type * ml_ast * ml_branch array | MLfix of int * Id.t array * ml_ast array | MLexn of string | MLdummy of kill_reason | MLaxiom | MLmagic of ml_ast | MLuint of Uint63.t | MLfloat of Float64.t | MLparray of ml_ast array * ml_ast and ml_pattern = | Pcons of GlobRef.t * ml_pattern list | Ptuple of ml_pattern list | Prel of int (** Cf. the idents in the branch. [Prel 1] is the last one. *) | Pwild | Pusual of GlobRef.t (** Shortcut for Pcons (r,[Prel n;...;Prel 1]) **) (*s ML declarations. *) type ml_decl = | Dind of MutInd.t * ml_ind | Dtype of GlobRef.t * Id.t list * ml_type | Dterm of GlobRef.t * ml_ast * ml_type | Dfix of GlobRef.t array * ml_ast array * ml_type array type ml_spec = | Sind of MutInd.t * ml_ind | Stype of GlobRef.t * Id.t list * ml_type option | Sval of GlobRef.t * ml_type type ml_specif = | Spec of ml_spec | Smodule of ml_module_type | Smodtype of ml_module_type and ml_module_type = | MTident of ModPath.t | MTfunsig of MBId.t * ml_module_type * ml_module_type | MTsig of ModPath.t * ml_module_sig | MTwith of ml_module_type * ml_with_declaration and ml_with_declaration = | ML_With_type of Id.t list * Id.t list * ml_type | ML_With_module of Id.t list * ModPath.t and ml_module_sig = (Label.t * ml_specif) list type ml_structure_elem = | SEdecl of ml_decl | SEmodule of ml_module | SEmodtype of ml_module_type and ml_module_expr = | MEident of ModPath.t | MEfunctor of MBId.t * ml_module_type * ml_module_expr | MEstruct of ModPath.t * ml_module_structure | MEapply of ml_module_expr * ml_module_expr and ml_module_structure = (Label.t * ml_structure_elem) list and ml_module = { ml_mod_expr : ml_module_expr; ml_mod_type : ml_module_type } (* NB: we do not translate the [mod_equiv] field, since [mod_equiv = mp] implies that [mod_expr = MEBident mp]. Same with [msb_equiv]. *) type ml_structure = (ModPath.t * ml_module_structure) list type ml_signature = (ModPath.t * ml_module_sig) list type unsafe_needs = { mldummy : bool; tdummy : bool; tunknown : bool; magic : bool } type language_descr = { keywords : Id.Set.t; (* Concerning the source file *) file_suffix : string; file_naming : ModPath.t -> string; (* the second argument is a comment to add to the preamble *) preamble : Id.t -> Pp.t option -> ModPath.t list -> unsafe_needs -> Pp.t; pp_struct : ml_structure -> Pp.t; (* Concerning a possible interface file *) sig_suffix : string option; (* the second argument is a comment to add to the preamble *) sig_preamble : Id.t -> Pp.t option -> ModPath.t list -> unsafe_needs -> Pp.t; pp_sig : ml_signature -> Pp.t; (* for an isolated declaration print *) pp_decl : ml_decl -> Pp.t; }
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