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in-package search v0.1.0
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val sexp_of_state_witness : state_witness -> Sexplib0.Sexp.t
include Incremental.S_gen
with type 'a t = ('a, state_witness) Incremental.incremental
with type Before_or_after.t = Incremental.Before_or_after.t
with type Clock.t = state_witness Incremental.Clock.t
with type 'a Cutoff.t = 'a Incremental.Cutoff.t
with type 'a Expert.Dependency.t =
('a, state_witness) Incremental.Expert.Dependency.t
with type 'a Expert.Node.t = ('a, state_witness) Incremental.Expert.Node.t
with type Expert.Step_result.t = Incremental.Expert.Step_result.t
with type 'a Observer.t = ('a, state_witness) Incremental.Observer.t
with type 'a Observer.Update.t = 'a Incremental.Observer.Update.t
with type Packed.t = Incremental.Packed.t
with type Scope.t = state_witness Incremental.Scope.t
with type State.t = state_witness Incremental.State.t
with type State.Stats.t = Incremental.State.Stats.t
with type ('a, 'b) Unordered_array_fold_update.t =
('a, 'b) Incremental.Unordered_array_fold_update.t
with type 'a Update.t = 'a Incremental.Update.t
with type 'a Var.t = ('a, state_witness) Incremental.Var.t
module State : sig ... end
type 'a t = ('a, state_witness) Incremental.incremental
val sexp_of_t : ('a -> Sexplib0.Sexp.t) -> 'a t -> Sexplib0.Sexp.t
type 'a incremental := 'a t
include Core.Invariant.S1 with type 'a t := 'a t
val invariant : ('a -> unit) -> 'a t -> unit
val is_const : _ t -> bool
val is_valid : _ t -> bool
val is_necessary : _ t -> bool
val const : 'a -> 'a t
val return : 'a -> 'a t
module Infix : sig ... end
module Unordered_array_fold_update : sig ... end
val unordered_array_fold :
?full_compute_every_n_changes:int ->
'a t array ->
init:'b ->
f:('b -> 'a -> 'b) ->
update:('a, 'b) Unordered_array_fold_update.t ->
'b t
module Scope : sig ... end
module Var : sig ... end
module Observer : sig ... end
val observe : ?should_finalize:bool -> 'a t -> 'a Observer.t
module Update : sig ... end
module Cutoff : sig ... end
val lazy_from_fun : (unit -> 'a) -> 'a Core.Lazy.t
val memoize_fun :
?initial_size:int ->
'a Base.Hashtbl.Key.t ->
('a -> 'b) ->
('a -> 'b) Core.Staged.t
val memoize_fun_by_key :
?initial_size:int ->
'key Base.Hashtbl.Key.t ->
('a -> 'key) ->
('a -> 'b) ->
('a -> 'b) Core.Staged.t
val weak_memoize_fun :
?initial_size:int ->
'a Base.Hashtbl.Key.t ->
('a -> 'b Core.Heap_block.t) ->
('a -> 'b Core.Heap_block.t) Core.Staged.t
val weak_memoize_fun_by_key :
?initial_size:int ->
'key Base.Hashtbl.Key.t ->
('a -> 'key) ->
('a -> 'b Core.Heap_block.t) ->
('a -> 'b Core.Heap_block.t) Core.Staged.t
val user_info : _ t -> Core.Info.t option
val set_user_info : _ t -> Core.Info.t option -> unit
val append_user_info_graphviz :
_ t ->
label:string list ->
attrs:string Core.String.Map.t ->
unit
module Node_value : sig ... end
val node_value : 'a t -> 'a Node_value.t
node_value t
returns whatever value t
happens to have in it, regardless of whether t
is valid, necessary, or stale. One should use observe
for a more sensible semantics, reserving node_value
for debugging.
module Packed : sig ... end
val save_dot : Core.Out_channel.t -> unit
module Let_syntax : sig ... end
module Before_or_after : sig ... end
module Step_function = Incremental_step_function
module Clock : sig ... end
module Expert : sig ... end
sectionYPositions = computeSectionYPositions($el), 10)"
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