package lsp
LSP protocol implementation in OCaml
Install
Dune Dependency
Authors
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AAndrey Popp <8mayday@gmail.com>
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RRusty Key <iam@stfoo.ru>
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LLouis Roché <louis@louisroche.net>
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OOleksiy Golovko <alexei.golovko@gmail.com>
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RRudi Grinberg <me@rgrinberg.com>
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SSacha Ayoun <sachaayoun@gmail.com>
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Ccannorin <cannorin@gmail.com>
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UUlugbek Abdullaev <ulugbekna@gmail.com>
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Thibaut Mattio
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MMax Lantas <mnxndev@outlook.com>
Maintainers
Sources
jsonrpc-1.8.3.tbz
sha256=58ef5aa7bf176712428b4e0b1015feaf6d677cbd9474f8822d132b25223b14e9
sha512=a368e3bc25eb6608110bd84b87142b6829a32182b61c336ad5faad597932e3c3db806a8043f52b234f2a05cc6ee88230267121fda81fff35c552cbb47ba895ab
doc/src/lsp.stdune/list.ml.html
Source file list.ml
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# 1 "submodules/dune/otherlibs/stdune-unstable/list.ml" include ListLabels type 'a t = 'a list let map ~f t = rev (rev_map ~f t) let is_empty = function | [] -> true | _ -> false let is_non_empty = function | [] -> false | _ -> true let filter_map l ~f = let rec loop acc = function | [] -> rev acc | x :: xs -> ( match f x with | None -> loop acc xs | Some x -> loop (x :: acc) xs) in loop [] l let filter_opt l = filter_map ~f:(fun x -> x) l let filteri l ~f = let rec filteri l i = match l with | [] -> [] | x :: l -> let i' = succ i in if f i x then x :: filteri l i' else filteri l i' in filteri l 0 let concat_map l ~f = concat (map l ~f) let rec rev_map_append l1 l2 ~f = match l1 with | [] -> l2 | a :: l -> rev_map_append l (f a :: l2) ~f let rev_partition_map = let rec loop l accl accr ~f = match l with | [] -> (accl, accr) | x :: l -> ( match (f x : (_, _) Either.t) with | Left y -> loop l (y :: accl) accr ~f | Right y -> loop l accl (y :: accr) ~f) in fun l ~f -> loop l [] [] ~f let partition_map l ~f = let l, r = rev_partition_map l ~f in (rev l, rev r) type ('a, 'b) skip_or_either = | Skip | Left of 'a | Right of 'b let rev_filter_partition_map = let rec loop l accl accr ~f = match l with | [] -> (accl, accr) | x :: l -> ( match f x with | Skip -> loop l accl accr ~f | Left y -> loop l (y :: accl) accr ~f | Right y -> loop l accl (y :: accr) ~f) in fun l ~f -> loop l [] [] ~f let filter_partition_map l ~f = let l, r = rev_filter_partition_map l ~f in (rev l, rev r) let rec find_map l ~f = match l with | [] -> None | x :: l -> ( match f x with | None -> find_map l ~f | Some _ as res -> res) let findi l ~f = let rec findi acc l ~f = match l with | [] -> None | x :: l -> if f x then Some (x, acc) else findi (acc + 1) l ~f in findi 0 l ~f let rec find l ~f = match l with | [] -> None | x :: l -> if f x then Some x else find l ~f let find_exn l ~f = match find l ~f with | Some x -> x | None -> Code_error.raise "List.find_exn" [] let rec last = function | [] -> None | [ x ] -> Some x | _ :: xs -> last xs let destruct_last = let rec loop acc = function | [] -> None | [ x ] -> Some (rev acc, x) | x :: xs -> loop (x :: acc) xs in fun xs -> loop [] xs let sort t ~compare = sort t ~cmp:(fun a b -> Ordering.to_int (compare a b)) let stable_sort t ~compare = stable_sort t ~cmp:(fun a b -> Ordering.to_int (compare a b)) let sort_uniq t ~compare = Stdlib.List.sort_uniq (fun a b -> Ordering.to_int (compare a b)) t let rec compare a b ~compare:f : Ordering.t = match (a, b) with | [], [] -> Eq | [], _ :: _ -> Lt | _ :: _, [] -> Gt | x :: a, y :: b -> ( match (f x y : Ordering.t) with | Eq -> compare a b ~compare:f | ne -> ne) let rec assoc t x = match t with | [] -> None | (k, v) :: t -> if x = k then Some v else assoc t x let singleton x = [ x ] let rec nth t i = match (t, i) with | [], _ -> None | x :: _, 0 -> Some x | _ :: xs, i -> nth xs (i - 1) let physically_equal = Stdlib.( == ) let init = let rec loop acc i n f = if i = n then rev acc else loop (f i :: acc) (i + 1) n f in fun n ~f -> loop [] 0 n f let hd_opt = function | [] -> None | x :: _ -> Some x let rec equal eq xs ys = match (xs, ys) with | [], [] -> true | x :: xs, y :: ys -> eq x y && equal eq xs ys | _, _ -> false let hash f xs = Stdlib.Hashtbl.hash (map ~f xs) let cons x xs = x :: xs (* copy&paste from [base] *) let fold_map t ~init ~f = let acc = ref init in let result = map t ~f:(fun x -> let new_acc, y = f !acc x in acc := new_acc; y) in (!acc, result) let unzip l = fold_right ~init:([], []) ~f:(fun (x, y) (xs, ys) -> (x :: xs, y :: ys)) l let rec for_all2 x y ~f = match (x, y) with | [], [] -> Ok true | x :: xs, y :: ys -> if f x y then for_all2 xs ys ~f else Ok false | _, _ -> Error `Length_mismatch let reduce xs ~f = match xs with | [] -> None | init :: xs -> Some (fold_left xs ~init ~f) let min xs ~f = reduce xs ~f:(Ordering.min f) let max xs ~f = reduce xs ~f:(Ordering.max f) let mem t a ~equal = exists t ~f:(equal a) (* copy&paste from [base] *) let split_while xs ~f = let rec loop acc = function | hd :: tl when f hd -> loop (hd :: acc) tl | t -> (rev acc, t) in loop [] xs
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