(Info-goto-node "(elisp)Input Events")
include Ecaml_value.Value.Subtype with type t = Ecaml_value.Value.ttype t = Ecaml_value.Value.tWe expose private value for free identity conversions when the value is nested in some covariant type, e.g. (symbols : Symbol.t list :> Value.t list) rather than List.map symbols ~f:Symbol.to_value.
val sexp_of_t : t -> Ppx_sexp_conv_lib.Sexp.teq t1 t2 = Value.eq (to_value t1) (to_value t2), i.e. eq checks whether the Emacs values underlying t1 and t2 are physically equal. This is different than phys_equal t1 t2, because we don't always wrap eq Emacs values in phys_equal OCaml values. I.e. phys_equal t1 t2 implies eq t1 t2, but not the converse.
val is_in_subtype : Ecaml_value.Value.t -> boolval of_value_exn : Ecaml_value__.Value0.t -> tval to_value : t -> Ecaml_value__.Value0.tval type_ : t Ecaml_value.Value.Type.tval description : t -> string(describe-function 'single-key-description) (Info-goto-node "(elisp)Describing Characters")
val create_exn : string -> tcreate_exn string is a specialized version of Key_sequence.create that raises unless string denotes a key sequence of length one.
(describe-function 'kbd) (Info-goto-node "(elisp)Key Sequences")
Here are some example inputs:
"C-c" "C-M-q" "<f5>" "C-<f5>" "C-<right>" "<mouse-2>" "C-<down-mouse-3>"
val read : unit -> t(describe-function 'read-event) (Info-goto-node "(elisp)Reading One Event")
module Basic : sig ... end(describe-function 'event-basic-type) (Info-goto-node "(elisp)Classifying Events")
module Modifier : sig ... endval modifiers : t -> Modifier.t list(describe-function 'event-modifiers) (Info-goto-node "(elisp)Classifying Events")
(describe-variable 'unread-command-events) (Info-goto-node "(elisp)Event Input Misc")
val enqueue_unread_command_input : t list -> unit