package frama-c
Platform dedicated to the analysis of source code written in C
Install
Dune Dependency
Authors
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MMichele Alberti
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TThibaud Antignac
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GGergö Barany
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PPatrick Baudin
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NNicolas Bellec
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TThibaut Benjamin
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AAllan Blanchard
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LLionel Blatter
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FFrançois Bobot
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RRichard Bonichon
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VVincent Botbol
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QQuentin Bouillaguet
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DDavid Bühler
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ZZakaria Chihani
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LLoïc Correnson
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JJulien Crétin
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PPascal Cuoq
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ZZaynah Dargaye
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BBasile Desloges
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JJean-Christophe Filliâtre
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PPhilippe Herrmann
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MMaxime Jacquemin
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FFlorent Kirchner
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AAlexander Kogtenkov
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RRemi Lazarini
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TTristan Le Gall
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JJean-Christophe Léchenet
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MMatthieu Lemerre
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DDara Ly
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DDavid Maison
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CClaude Marché
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AAndré Maroneze
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TThibault Martin
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FFonenantsoa Maurica
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MMelody Méaulle
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BBenjamin Monate
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YYannick Moy
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PPierre Nigron
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AAnne Pacalet
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VValentin Perrelle
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GGuillaume Petiot
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DDario Pinto
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VVirgile Prevosto
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AArmand Puccetti
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FFélix Ridoux
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VVirgile Robles
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JJan Rochel
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MMuriel Roger
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JJulien Signoles
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NNicolas Stouls
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KKostyantyn Vorobyov
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BBoris Yakobowski
Maintainers
Sources
frama-c-29.0-Copper.tar.gz
sha256=d2fbb3b8d0ff83945872e9e6fa258e934a706360e698dae3b4d5f971addf7493
doc/src/qed/listmap.ml.html
Source file listmap.ml
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(**************************************************************************) (* *) (* This file is part of WP plug-in of Frama-C. *) (* *) (* Copyright (C) 2007-2024 *) (* CEA (Commissariat a l'energie atomique et aux energies *) (* alternatives) *) (* *) (* you can redistribute it and/or modify it under the terms of the GNU *) (* Lesser General Public License as published by the Free Software *) (* Foundation, version 2.1. *) (* *) (* It is distributed in the hope that it will be useful, *) (* but WITHOUT ANY WARRANTY; without even the implied warranty of *) (* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the *) (* GNU Lesser General Public License for more details. *) (* *) (* See the GNU Lesser General Public License version 2.1 *) (* for more details (enclosed in the file licenses/LGPLv2.1). *) (* *) (**************************************************************************) (* -------------------------------------------------------------------------- *) (* --- Merging List-map Functor --- *) (* -------------------------------------------------------------------------- *) module type Key = sig type t val equal : t -> t -> bool val compare : t -> t -> int end module Make(K : Key) = struct (* Should be implemented using listset *) type key = K.t type 'a t = (key * 'a) list let compare cmp = Hcons.compare_list (fun (i,x) (j,y) -> let r = K.compare i j in if r != 0 then r else cmp x y) let equal eq = Hcons.equal_list (fun (i,x) (j,y) -> K.equal i j && eq x y) let empty = [] let is_empty = function [] -> true | _ -> false (* used for better sharing between a list and a modified list *) let rev_append_until i l1 l2 = let rec aux acc = function | [] -> acc | i'::_ when i'==i -> acc | i'::l -> aux (i'::acc) l in aux l2 l1 (* used for better sharing between a list and a modified list *) let append_until i l1 l2 = List.rev_append (rev_append_until i l1 []) l2 (* good sharing *) let mapq f l = let rec aux ((res,rest) as acc) = function | [] -> List.rev_append res rest | ((k,v) as i) :: resti -> (match f k v with | None -> (* remove *) aux ((rev_append_until i rest res),resti) resti | Some v' -> if v'==v then (* add idem *) aux acc resti else (* add new *) aux (((k,v')::(rev_append_until i rest res)),resti) resti) in aux ([],l) l (* good sharing *) (* idem List.filter, but returns l if no element is removed. *) let filter f l = let rec aux ((res,rest) as acc) = function | [] -> List.rev_append res rest | i :: resti -> if f i then (* add idem *) aux acc resti else (* remove *) aux ((rev_append_until i rest res),resti) resti in aux ([],l) l (* good sharing *) (* idem List.partition, better sharing. *) let partition f l = let rec aux ((res,rest) as acc) ((res',rest') as acc') = function | [] -> (List.rev_append res rest), (List.rev_append res' rest') | ((k,v) as i) :: resti -> if f k v then aux acc ((rev_append_until i rest' res'),resti) resti else aux ((rev_append_until i rest res),resti) acc' resti in aux ([],l) ([],l) l (* good sharing *) let change f k v l = let rec aux = function | [] -> (match f k v None with None -> l | Some w -> l @ [k,w]) | ((k',v') as a)::next-> let c = K.compare k k' in if c < 0 then l else if c = 0 then match f k v (Some v') with | None -> append_until a l next | Some w -> if w==v' then l else append_until a l ((k, w) :: next) else (* c > 0 *) aux next in aux l (* good sharing *) let insert f k v l = let rec aux = function | [] -> l @ [k,v] | (((k',v') as a)::next) as w -> let c = K.compare k k' in if c < 0 then append_until a l ((k,v) :: w) else if c = 0 then let w = f k v v' in if w==v' then l else append_until a l ((k, w) :: next) else (* c > 0 *) aux next in aux l (* good sharing *) let add k x = insert (fun _k x _old -> x) k x let rec findk k = function | [] -> raise Not_found | ((k0,_) as e) :: next -> let c = K.compare k k0 in if c < 0 then raise Not_found else if c > 0 then findk k next else e let find k m = snd (findk k m) let mem k m = try ignore (find k m) ; true with Not_found -> false let mapi f = List.map (fun (k,v) -> k,f k v) let map f = mapi (fun _k v -> f v) let iter f = List.iter (fun (k,v) -> f k v) (* good sharing *) let remove k m = change (fun _ _ _ -> None) k () m (* good sharing *) let filter f m = filter (fun (k,x) -> f k x) m let rec mapf f = function | [] -> [] | (k,x)::m -> match f k x with | Some y -> (k,y)::mapf f m | None -> mapf f m let fold f m a = List.fold_left (fun a (k,v) -> f k v a) a m let rec inter f w1 w2 = match w1 , w2 with | [] , _ | _ , [] -> [] | (k1,v1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then inter f r1 w2 else if c > 0 then inter f w1 r2 else (k1,f k1 v1 v2) :: inter f r1 r2 let rec interf f w1 w2 = match w1 , w2 with | [] , _ | _ , [] -> [] | (k1,v1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then interf f r1 w2 else if c > 0 then interf f w1 r2 else match f k1 v1 v2 with | None -> interf f r1 r2 | Some v12 -> (k1,v12) :: interf f r1 r2 (* good sharing with w1 *) let interq f w1 w2 = let rec aux ((res,o1) as acc) w1 w2 = match w1 , w2 with | [] , _ -> (* no addition *) List.rev_append res o1 | a1::_, [] -> (* no addition *) List.rev_append res (List.rev (rev_append_until a1 o1 [])) | ((k1,v1) as a1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then (* remove a1 *) aux ((rev_append_until a1 o1 res),r1) r1 w2 else if c > 0 then (* remove a2 *) aux acc w1 r2 else match f k1 v1 v2 with | None -> (* remove a1 *) aux ((rev_append_until a1 o1 res),r1) r1 r2 | Some w -> if w==v1 then (* adding a1 *) aux acc r1 r2 else (* adding w *) aux (((k1,w)::(rev_append_until a1 o1 res)), r1) r1 r2 in aux ([],w1) w1 w2 (* good sharing with w1 *) let diffq f w1 w2 = let rec aux ((res,o1) as acc) w1 w2 = match w1 , w2 with | [] , _ -> (* no addition *) List.rev_append res o1 | _ , [] -> (* adding w1 *) List.rev_append res o1 | ((k1,v1) as a1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then (* adding a1 *) aux acc r1 w2 else if c > 0 then (* skip *) aux acc w1 r2 else match f k1 v1 v2 with | None -> (* remove a1 *) aux ((rev_append_until a1 o1 res),r1) r1 r2 | Some w -> if w==v1 then (* adding a1 *) aux acc r1 r2 else (* adding w *) aux (((k1,w)::(rev_append_until a1 o1 res)), r1) r1 r2 in aux ([],w1) w1 w2 (* good sharing with w1 *) let union f w1 w2 = let rec aux ((res,o1) as acc) w1 w2 = match w1 , w2 with | [] , _ -> (* adding w2 *) List.rev_append res (List.append o1 w2) | _ , [] -> (* adding w1 *) List.rev_append res o1 | ((k1,v1) as a1)::r1 , ((k2,v2) as a2)::r2 -> let c = K.compare k1 k2 in if c < 0 then (* adding a1 *) aux acc r1 w2 else if c = 0 then let w = f k1 v1 v2 in if w==v1 then (* adding a1 *) aux acc r1 r2 else (* adding w *) aux (((k1,w)::(rev_append_until a1 o1 res)), r1) r1 r2 else (* c > 0 *) (* adding a2 *) aux ((a2::(rev_append_until a1 o1 res)),w1) w1 r2 in aux ([],w1) w1 w2 let rec subset f w1 w2 = match w1 , w2 with | [] , _ -> true | _::_ , [] -> false | (k1,v1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then false else if c > 0 then subset f w1 r2 else f k1 v1 v2 && subset f r1 r2 let rec iterk (f : K.t -> 'a -> 'b -> unit) (w1 : (K.t * 'a) list) (w2 : (K.t * 'b) list) = match w1 , w2 with | [] , _ | _ , [] -> () | (k1,v1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then iterk f r1 w2 else if c > 0 then iterk f w1 r2 else (f k1 v1 v2 ; iterk f r1 r2) let rec iter2 (f : K.t -> 'a option -> 'b option -> unit) (w1 : (K.t * 'a) list) (w2 : (K.t * 'b) list) = match w1 , w2 with | [] , [] -> () | _ , [] -> List.iter (fun (k1,v1) -> f k1 (Some v1) None) w1 | [] , _ -> List.iter (fun (k2,v2) -> f k2 None (Some v2)) w2 | (k1,v1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then (f k1 (Some v1) None ; iter2 f r1 w2) else if c > 0 then (f k2 None (Some v2) ; iter2 f w1 r2) else (f k1 (Some v1) (Some v2) ; iter2 f r1 r2) let cons k v w = match v with | None -> w | Some x -> (k,x) :: w let rec merge (f : K.t -> 'a option -> 'b option -> 'c option) w1 w2 = match w1 , w2 with | [] , [] -> [] | _ , [] -> mapf (fun k1 v1 -> f k1 (Some v1) None) w1 | [] , _ -> mapf (fun k2 v2 -> f k2 None (Some v2)) w2 | (k1,v1)::r1 , (k2,v2)::r2 -> let c = K.compare k1 k2 in if c < 0 then cons k1 (f k1 (Some v1) None) (merge f r1 w2) else if c > 0 then cons k2 (f k2 None (Some v2)) (merge f w1 r2) else cons k1 (f k1 (Some v1) (Some v2)) (merge f r1 r2) end
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