package core
Industrial strength alternative to OCaml's standard library
Install
Dune Dependency
Authors
Maintainers
Sources
v0.17.0.tar.gz
sha256=b0e23c1b1049e48cbbaa596d49927c66e6026506031bd7f5b485af6e9475b4e3
doc/src/core.univ_map/univ_map_intf.ml.html
Source file univ_map_intf.ml
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(** Universal/heterogeneous maps, useful for storing values of arbitrary type in a single map. In order to recover a value, it must be looked up with exactly the [Key.t] it was stored in. In other words, given different [Key.t]s from the same [string], one will not be able to recover the key stored in the other one. This is similar to [Univ] in spirit. *) open! Base module type Key = sig type 'a t [@@deriving sexp_of] (** For correct behavior of the map, [type_id] must return the same [Type_equal.Id] on different calls on the same input. *) val type_id : 'a t -> 'a Type_equal.Id.t end module type Data = sig type 'a t [@@deriving sexp_of] end module type Data1 = sig type ('s, 'a) t [@@deriving sexp_of] end module type S1 = sig (** The ['s] parameter is shared across all values stored in the map. *) type 's t [@@deriving sexp_of] module Key : Key type ('s, 'a) data val invariant : _ t -> unit val empty : _ t val singleton : 'a Key.t -> ('s, 'a) data -> 's t val is_empty : _ t -> bool val set : 's t -> key:'a Key.t -> data:('s, 'a) data -> 's t val mem : _ t -> _ Key.t -> bool val mem_by_id : _ t -> Type_equal.Id.Uid.t -> bool val find : 's t -> 'a Key.t -> ('s, 'a) data option val find_exn : 's t -> 'a Key.t -> ('s, 'a) data val add : 's t -> key:'a Key.t -> data:('s, 'a) data -> [ `Ok of 's t | `Duplicate ] val add_exn : 's t -> key:'a Key.t -> data:('s, 'a) data -> 's t val change : 's t -> 'a Key.t -> f:(('s, 'a) data option -> ('s, 'a) data option) -> 's t val change_exn : 's t -> 'a Key.t -> f:(('s, 'a) data -> ('s, 'a) data) -> 's t val update : 's t -> 'a Key.t -> f:(('s, 'a) data option -> ('s, 'a) data) -> 's t val remove : 's t -> 'a Key.t -> 's t val remove_by_id : 's t -> Type_equal.Id.Uid.t -> 's t module Packed : sig type 's t = T : 'a Key.t * ('s, 'a) data -> 's t end val key_id_set : 's t -> Set.M(Type_equal.Id.Uid).t val to_alist : 's t -> 's Packed.t list val of_alist_exn : 's Packed.t list -> 's t val find_packed_by_id : 's t -> Type_equal.Id.Uid.t -> 's Packed.t option val find_packed_by_id_exn : 's t -> Type_equal.Id.Uid.t -> 's Packed.t val type_equal : ('s t, 's Packed.t Map.M(Type_equal.Id.Uid).t) Type_equal.t end module type S = sig type t [@@deriving sexp_of] module Key : Key type 'a data include Invariant.S with type t := t val empty : t val singleton : 'a Key.t -> 'a data -> t val is_empty : t -> bool val set : t -> key:'a Key.t -> data:'a data -> t val mem : t -> 'a Key.t -> bool val mem_by_id : t -> Type_equal.Id.Uid.t -> bool val find : t -> 'a Key.t -> 'a data option val find_exn : t -> 'a Key.t -> 'a data val add : t -> key:'a Key.t -> data:'a data -> [ `Ok of t | `Duplicate ] val add_exn : t -> key:'a Key.t -> data:'a data -> t val change : t -> 'a Key.t -> f:('a data option -> 'a data option) -> t val change_exn : t -> 'a Key.t -> f:('a data -> 'a data) -> t val update : t -> 'a Key.t -> f:('a data option -> 'a data) -> t val remove : t -> 'a Key.t -> t val remove_by_id : t -> Type_equal.Id.Uid.t -> t module Packed : sig type 's t1 = T : 'a Key.t * 'a data -> 's t1 type t = unit t1 end val key_id_set : t -> Set.M(Type_equal.Id.Uid).t (** [to_alist t] returns all values in [t], in increasing order of key type-id name. *) val to_alist : t -> Packed.t list val of_alist_exn : Packed.t list -> t val find_packed_by_id : t -> Type_equal.Id.Uid.t -> Packed.t option val find_packed_by_id_exn : t -> Type_equal.Id.Uid.t -> Packed.t val type_equal : (t, Packed.t Map.M(Type_equal.Id.Uid).t) Type_equal.t end module type Univ_map = sig module type S = S module type S1 = S1 module type Key = Key module type Data = Data module Type_id_key : Key with type 'a t = 'a Type_equal.Id.t include S with type 'a data = 'a and module Key := Type_id_key (** This binding is convenient because existing call sites often refer to [Univ_map.Key.create]. *) module Key = Type_equal.Id module Make (Key : Key) (Data : Data) : S with type 'a data = 'a Data.t and module Key = Key module Make1 (Key : Key) (Data : Data1) : S1 with type ('s, 'a) data = ('s, 'a) Data.t and module Key = Key module Merge (Key : Key) (Input1_data : Data) (Input2_data : Data) (Output_data : Data) : sig type f = { f : 'a. key:'a Key.t -> [ `Left of 'a Input1_data.t | `Right of 'a Input2_data.t | `Both of 'a Input1_data.t * 'a Input2_data.t ] -> 'a Output_data.t option } (** The analogue of the normal [Map.merge] function. *) val merge : Make(Key)(Input1_data).t -> Make(Key)(Input2_data).t -> f:f -> Make(Key)(Output_data).t end module Merge1 (Key : Key) (Input1_data : Data1) (Input2_data : Data1) (Output_data : Data1) : sig type ('s1, 's2, 's3) f = { f : 'a. key:'a Key.t -> [ `Left of ('s1, 'a) Input1_data.t | `Right of ('s2, 'a) Input2_data.t | `Both of ('s1, 'a) Input1_data.t * ('s2, 'a) Input2_data.t ] -> ('s3, 'a) Output_data.t option } (** The analogue of the normal [Map.merge] function. *) val merge : 's1 Make1(Key)(Input1_data).t -> 's2 Make1(Key)(Input2_data).t -> f:('s1, 's2, 's3) f -> 's3 Make1(Key)(Output_data).t end (** keys with associated default values, so that [find] is no longer partial *) module With_default : sig module Key : sig type 'a t val create : default:'a -> name:string -> ('a -> Sexp.t) -> 'a t val id : 'a t -> 'a Type_equal.Id.t end val set : t -> key:'a Key.t -> data:'a -> t val find : t -> 'a Key.t -> 'a val change : t -> 'a Key.t -> f:('a -> 'a) -> t end (** keys that map to an accumulator value with an associated fold operation *) module With_fold : sig module Key : sig type ('a, 'b) t val create : init:'b -> f:('b -> 'a -> 'b) -> name:string -> ('b -> Sexp.t) -> ('a, 'b) t val id : ('a, 'b) t -> 'b Type_equal.Id.t end (** reset the accumulator *) val set : t -> key:('a, 'b) Key.t -> data:'b -> t (** the current accumulator *) val find : t -> ('a, 'b) Key.t -> 'b (** fold value into accumulator *) val add : t -> key:('a, 'b) Key.t -> data:'a -> t (** accumulator update *) val change : t -> ('a, 'b) Key.t -> f:('b -> 'b) -> t end (** list-accumulating keys with a default value of the empty list *) module Multi : sig module Key : sig type 'a t val create : name:string -> ('a -> Sexp.t) -> 'a t val id : 'a t -> 'a list Type_equal.Id.t end val set : t -> key:'a Key.t -> data:'a list -> t val find : t -> 'a Key.t -> 'a list val add : t -> key:'a Key.t -> data:'a -> t val change : t -> 'a Key.t -> f:('a list -> 'a list) -> t end end
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