Module `Ecaml__Defun`

include Ecaml__.Defun_intf.Defun

type 'a t

val sexp_of_t : ('a -> Ppx_sexp_conv_lib.Sexp.t) -> 'a t -> Ppx_sexp_conv_lib.Sexp.t

module Open_on_rhs_intf : sig ... end

include Core_kernel.Applicative.Let_syntax with type 'a t := 'a t with module Open_on_rhs_intf := Open_on_rhs_intf

type 'a t

module Open_on_rhs_intf : sig ... end

module Let_syntax : sig ... end

include Open_on_rhs_intf.S with type 'a S.t := 'a t

type 'a t = 'a t

val return : 'a -> 'a t
val map : 'a t -> f:('a -> 'b) -> 'b t
val both : 'a t -> 'b t -> ('a * 'b) t
val required : Ecaml.Symbol.t -> 'a Ecaml__.Import.Value.Type.t -> 'a t
val optional : Ecaml.Symbol.t -> 'a Ecaml__.Import.Value.Type.t -> 'a option t
val rest : Ecaml.Symbol.t -> 'a Ecaml__.Import.Value.Type.t -> 'a list t
val optional_with_default : Ecaml.Symbol.t -> 'a -> 'a Ecaml__.Import.Value.Type.t -> 'a t
val optional_with_nil : Ecaml.Symbol.t -> 'a Ecaml__.Import.Value.Type.t -> 'a t: An optional argument whose Value.Type.t handles nil directly.

include Ecaml__.Import.Value.Type.S

type value
type 'a t

val create : Core_kernel.Sexp.t -> ('a -> Core_kernel.Sexp.t) -> (value -> 'a) -> ('a -> value) -> 'a t
val with_of_value_exn : 'a t -> (value -> 'a) -> 'a t
val to_sexp : 'a t -> 'a -> Core_kernel.Sexp.t
val bool : bool t
val float : float t
val ignored : unit t
val int : int t
val string : string t
val string_cached : string t: string_cached is like string, except it uses of_utf8_bytes_cached.

val unit : unit t
val value : value t
val list : 'a t -> 'a list t
val vector : 'a t -> 'a array t
val option : ?⁠wrapped:bool -> 'a t -> 'a option t: The representation of an option type's values in Elisp can be "wrapped" or "unwrapped". In either case, None is represented as nil. The unrwapped representation of Some v is the representation of v, whereas the wrapped representation is cons v nil. Wrapping is necessary if nil is a representation of some value v_nil, in order to distinguish between the representation of None and Some v_nil.

val alist : 'a t -> 'b t -> ('a * 'b) list t
val tuple : 'a t -> 'b t -> ('a * 'b) t: Represent a tuple (a,b) as the elisp cons cell (a . b)

val tuple2_as_list : 'a t -> 'b t -> ('a * 'b) t: Represent a tuple (a,b) as the elisp list '(a b)

val sexpable : (module Core_kernel.Sexpable with type t = 'a) -> name:Core_kernel.Sexp.t -> 'a t: Embed a sexpable ocaml type, so we can save values of the type in emacs, e.g. as buffer local variables

val caml_embed : 'a Core_kernel.Type_equal.Id.t -> 'a t

Embed values of type 'a. Note that unlike other functions above, the values are not transformed, so this can be used to preserve state in emacs. More precisely, this following returns true:

let var = Var.create (Value.Type.caml_embed type_id) in
Current_buffer.set_value var v;
phys_equal v (Current_buffer.value_exn var)

val path_list : string list t: A list of directories. Each element is a string (directory name) or nil (try default directory). nil values are converted to ".", which has the same meaning.

module Interactive : sig ... end

module For_testing : sig ... end

val defun_raw : Ecaml.Symbol.t -> Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠interactive:string -> args:Ecaml.Symbol.t list -> ?⁠optional_args:Ecaml.Symbol.t list -> ?⁠rest_arg:Ecaml.Symbol.t -> Ecaml__.Import.Function.Fn.t -> unit

module Returns : sig ... end

val defun : Ecaml.Symbol.t -> Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠define_keys:(Ecaml.Keymap.t * string) list -> ?⁠obsoletes:Ecaml.Symbol.t -> ?⁠interactive:Interactive.t -> 'a Returns.t -> 'a t -> unit
val defalias : Ecaml.Symbol.t -> Core_kernel.Source_code_position.t -> ?⁠docstring:string -> alias_of:Ecaml.Symbol.t -> unit -> unit: (describe-function 'defalias) (Info-goto-node "(elisp)Defining Functions")

val define_obsolete_alias : Ecaml.Symbol.t -> Core_kernel.Source_code_position.t -> ?⁠docstring:string -> alias_of:Ecaml.Symbol.t -> since:string -> unit -> unit

(describe-function 'define-obsolete-function-alias)

N.B. Load order matters. A subsequent defun will override the aliasing.

val defun_nullary : Ecaml.Symbol.t -> Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠define_keys:(Ecaml.Keymap.t * string) list -> ?⁠obsoletes:Ecaml.Symbol.t -> ?⁠interactive:Interactive.t -> 'a Returns.t -> (unit -> 'a) -> unit
val defun_nullary_nil : Ecaml.Symbol.t -> Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠define_keys:(Ecaml.Keymap.t * string) list -> ?⁠obsoletes:Ecaml.Symbol.t -> ?⁠interactive:Interactive.t -> (unit -> unit) -> unit
val lambda : Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠interactive:Interactive.t -> 'a Returns.t -> 'a t -> Ecaml__.Import.Function.t
val lambda_nullary : Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠interactive:Interactive.t -> 'a Returns.t -> (unit -> 'a) -> Ecaml__.Import.Function.t
val lambda_nullary_nil : Core_kernel.Source_code_position.t -> ?⁠docstring:string -> ?⁠interactive:Interactive.t -> (unit -> unit) -> Ecaml__.Import.Function.t

module Private : sig ... end