package lsp
LSP protocol implementation in OCaml
Install
Dune Dependency
Authors
Maintainers
Sources
jsonrpc-1.7.0.tbz
sha256=ca43b6608366ddf891d7c1e1cc38de2c7f93a6da0511de164959db1f88fc42ed
sha512=43a00604f25bd1d3e93bfd43f1ef9c4cad9aa392c15a5db0c5ba0264f396e7ca6f60a0293467609402e87aeec441a05e7ee2990b37c98dc27b92a22afbebfd02
doc/src/lsp.stdune/sexp.ml.html
Source file sexp.ml
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71
# 1 "submodules/dune/otherlibs/stdune-unstable/sexp.ml" module Array = ArrayLabels module List = ListLabels module String = StringLabels include Csexp let rec to_string = function | Atom s -> Escape.quote_if_needed s | List l -> Printf.sprintf "(%s)" (List.map ~f:to_string l |> String.concat ~sep:" ") let rec pp = function | Atom s -> Pp.text (Escape.quote_if_needed s) | List [] -> Pp.text "()" | List xs -> Pp.box ~indent:1 (let open Pp.O in Pp.text "(" ++ Pp.hvbox (List.map xs ~f:pp |> Pp.concat ~sep:Pp.space) ++ Pp.text ")") let hash = Stdlib.Hashtbl.hash let string_equal (x : string) (y : string) = x = y let rec equal x y = match (x, y) with | Atom x, Atom y -> string_equal x y | List x, List y -> equal_list x y | _, _ -> false and equal_list xs ys = (* replicating List.equal to avoid circular deps *) match (xs, ys) with | [], [] -> true | x :: xs, y :: ys -> equal x y && equal_list xs ys | _, _ -> false let compare x y = Ordering.of_int (compare x y) let rec of_dyn : Dyn.t -> t = function | Opaque -> Atom "<opaque>" | Unit -> List [] | Int i -> Atom (string_of_int i) | Int64 i -> Atom (Int64.to_string i) | Bool b -> Atom (string_of_bool b) | String s -> Atom s | Bytes s -> Atom (Bytes.to_string s) | Char c -> Atom (String.make 1 c) | Float f -> Atom (string_of_float f) | Option o -> List (match o with | None -> [] | Some x -> [ of_dyn x ]) | List l -> List (List.map l ~f:of_dyn) | Array a -> List (Array.to_list a |> List.map ~f:of_dyn) | Map xs -> List (List.map xs ~f:(fun (k, v) -> List [ of_dyn k; of_dyn v ])) | Set xs -> List (List.map xs ~f:of_dyn) | Tuple t -> List (List.map t ~f:of_dyn) | Record fields -> List (List.map fields ~f:(fun (field, f) -> List [ Atom field; of_dyn f ])) | Variant (s, []) -> Atom s | Variant (s, xs) -> List (Atom s :: List.map xs ~f:of_dyn) let rec to_dyn : t -> Dyn.t = function | Atom s -> String s | List xs -> List (List.map ~f:to_dyn xs) let record (xs : (string * t) list) : t = List (List.map xs ~f:(fun (x, y) -> List [ Atom x; y ]))
sectionYPositions = computeSectionYPositions($el), 10)"
x-init="setTimeout(() => sectionYPositions = computeSectionYPositions($el), 10)"
>