(************************************************************************) (* * The Rocq Prover / The Rocq 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 Constr open Univ open UVars open Declarations open Environ open CClosure
(** {6 Extracting an inductive type from a construction } *)
(** [find_m*type env sigma c] coerce [c] to an recursive type (I args). [find_rectype], [find_inductive] and [find_coinductive] respectively accepts any recursive type, only an inductive type and only a coinductive type.
They raise [Not_found] if not convertible to a recursive type. *)
val find_rectype : ?evars:evar_handler -> env -> types -> pinductive * constr list val find_inductive : ?evars:evar_handler -> env -> types -> pinductive * constr list val find_coinductive : ?evars:evar_handler -> env -> types -> pinductive * constr list
(** {6 ... } *) (** Fetching information in the environment about an inductive type.
Raises an anomaly if the inductive type is not found. *) val lookup_mind_specif : env -> inductive -> mind_specif
(** {6 Functions to build standard types related to inductive } *)
(** Returns the parameters of an inductive type with universes instantiated *) val inductive_paramdecls : mutual_inductive_body puniverses -> Constr.rel_context
(** Returns the parameters of an inductive type with universes instantiated, splitting it into the contexts of recursively
uniform and recursively non-uniform parameters *) val inductive_nonrec_rec_paramdecls : mutual_inductive_body puniverses -> Constr.rel_context * Constr.rel_context
val inductive_nnonrecparams : mutual_inductive_body -> int
val instantiate_inductive_constraints :
mutual_inductive_body -> Instance.t -> Constraints.t
type template_univ =
| TemplateProp
| TemplateAboveProp of Sorts.QVar.t * Universe.t
| TemplateUniv of Universe.t
type param_univs = (default:Sorts.t -> template_univ) list
type template_subst = Sorts.Quality.t Int.Map.t * Universe.t Int.Map.t
val instantiate_template_constraints
: template_subst
-> Declarations.template_universes
-> Univ.Constraints.t
val constrained_type_of_inductive : mind_specif puniverses -> types constrained
val relevance_of_ind_body : one_inductive_body -> UVars.Instance.t -> Sorts.relevance
val relevance_of_inductive : env -> pinductive -> Sorts.relevance
val type_of_inductive : mind_specif puniverses -> types
val type_of_inductive_knowing_parameters :
mind_specif puniverses -> param_univs -> types constrained
(** Elimination operations. These functions handle the internals of elimination.
Call them instead of the lower-level ones like Sorts.eliminates_to. *)
val eliminates_to : Sorts.Quality.t -> Sorts.Quality.t -> bool
type squash = SquashToSet | SquashToQuality of Sorts.Quality.t
type'a allow_elimination_actions =
{ not_squashed : 'a
; squashed_to_set_below : 'a
; squashed_to_set_above : 'a
; squashed_to_quality : Sorts.Quality.t -> 'a }
val is_squashed : mind_specif puniverses -> squash option
val is_allowed_elimination_actions : Sorts.t -> bool allow_elimination_actions
val is_allowed_elimination : mind_specif puniverses -> Sorts.t -> bool val is_allowed_fixpoint : Sorts.t -> Sorts.t -> bool
(** End of elimination functions *)
val is_private : mind_specif -> bool val is_primitive_record : mind_specif -> bool
(** Return type as quoted by the user *)
val constrained_type_of_constructor : pconstructor -> mind_specif -> types constrained val type_of_constructor : pconstructor -> mind_specif -> types val type_of_constructor_knowing_parameters : pconstructor -> mind_specif -> param_univs -> types constrained
(** Return constructor types in normal form *) val arities_of_constructors : pinductive -> mind_specif -> types array
(** Return constructor types in user form *) val type_of_constructors : pinductive -> mind_specif -> types array
(** Turns a constructor type recursively referring to inductive types into the same constructor type referring instead to a context made from the abstract declaration of the inductive types (e.g. turns [nat->nat] into [mkArrowR (Rel 1) (Rel 2)]); takes as arguments the number
of inductive types in the block and the name of the block *) val abstract_constructor_type_relatively_to_inductive_types_context :
int -> MutInd.t -> types -> types
val inductive_params : mind_specif -> int
(** Given an inductive type and its parameters, builds the context of the return clause, including the inductive being eliminated. The additional binder array is only used to set the names of the context variables, we use the
less general type to make it easy to use this function on Case nodes. *) val expand_arity : mind_specif -> pinductive -> constr array ->
Name.t binder_annot array -> rel_context
(** Given an inductive type and its parameters, builds the context of the return clause, including the inductive being eliminated. The additional binder array is only used to set the names of the context variables, we use the
less general type to make it easy to use this function on Case nodes. *) val expand_branch_contexts : mind_specif -> UVars.Instance.t -> constr array ->
(Name.t binder_annot array * 'a) array -> rel_context array
type expanded_case = (constr,types,Sorts.relevance) pexpanded_case
(** Given a pattern-matching represented compactly, expands it so as to produce lambda and let abstractions in front of the return clause and the pattern
branches. *) val expand_case : env -> case -> expanded_case
val expand_case_specif : mutual_inductive_body -> case -> expanded_case
(** Dual operation of the above. Fails if the return clause or branch has not
the expected form. *) val contract_case : env -> expanded_case -> case
(** [instantiate_context u subst nas ctx] applies both [u] and [subst] to [ctx] while replacing names using [nas] (order reversed). In particular,
assumes that [ctx] and [nas] have the same length. *) val instantiate_context : Instance.t -> Vars.substl -> Name.t binder_annot array ->
rel_context -> rel_context
val build_branches_type :
pinductive -> mutual_inductive_body * one_inductive_body ->
constr list -> constr -> types array
(** Check a [case_info] actually correspond to a Case expression on the
given inductive type. *) val check_case_info : env -> pinductive -> case_info -> unit
(** {6 Guard conditions for fix and cofix-points. } *)
(** [is_primitive_positive_container env c] tells if the constant [c] is registered as a primitive type that can be seen as a container where the occurrences of its parameters are positive, in which case the positivity and guard conditions are extended to allow inductive types to nest their subterms
in these containers. *) val is_primitive_positive_container : env -> Constant.t -> bool
(** When [chk] is false, the guard condition is not actually
checked. *) val check_fix : ?evars:evar_handler -> env -> fixpoint -> unit val check_cofix : ?evars:evar_handler -> env -> cofixpoint -> unit
val abstract_mind_lc : int -> int -> MutInd.t -> (rel_context * constr) array -> constr array
module Template : sig val bind_kind : Sorts.t -> int option * int option val template_subst_sort : template_subst -> Sorts.t -> Sorts.t
(** Qualities must be above_prop *) val max_template_quality : Sorts.Quality.t -> Sorts.Quality.t -> Sorts.Quality.t end
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