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data.ml
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(* Time-stamp: <modified the 12/03/2020 (at 15:40) by Erwan Jahier> *) type ident = string type v = I of int | F of float | B of bool | E of ident * int | A of v array | S of (ident * v) list | U | Str of string type t = | Bool | Int | Real | Extern of ident | Enum of (ident * ident list) | Struct of ident * (ident * t) list | Array of (t * int) | Alpha of int | Alias of (string * t) | String let (val_to_string_type : v -> string) = function | I _ -> "int" | F _ -> "real" | B _ -> "bool" | E (e,_) -> e | S _ -> "struct" | A _ -> "array" | U -> "nil" | Str _ -> "string" let rec (val_to_string : (float -> string) -> v -> string) = fun s2f -> function | I i -> (try string_of_int i with _ -> assert false) | F f -> s2f f | B true -> "t" | B false -> "f" | E (e,_) -> e | S fl -> "{"^(String.concat ";" (List.map (fun (fn,fv) -> fn^"="^(val_to_string s2f fv)) fl))^"}" | A a -> let str = ref "[" in let f i a = str := !str ^ (if i = 0 then "" else ",") ^ (val_to_string s2f a) in Array.iteri f a; (!str^"]") | U -> "nil" | Str str -> str let (val_to_rif_string : (float -> string) -> v -> string) = fun s2f -> function | I i -> (try string_of_int i with _ -> assert false) | F f -> s2f f | B true -> "t" | B false -> "f" | E (e,_) -> e | S fl -> ""^(String.concat ";" (List.map (fun (_fn,fv) -> " "^(val_to_string s2f fv)) fl))^"" | A a -> let str = ref "" in let f i a = str := !str ^ (if i = 0 then "" else " ") ^ (val_to_string s2f a) in Array.iteri f a; (!str) | U -> "nil" | Str str -> str let rec (type_to_string_gen : bool -> t -> string) = fun alias v -> let str = match v with | String -> "string" | Bool -> "bool" | Int -> "int" | Real -> "real" | Extern _s -> "string" (* what else should be done? *) (* | Enum (s, sl) -> "enum " ^ s ^ " {" ^ (String.concat ", " sl) ^ "}" *) | Enum (s, _sl) -> s | Struct (sid,_) -> sid | Array (ty, sz) -> Printf.sprintf "%s^%d" (type_to_string_gen alias ty) sz | Alpha nb -> (* On génère des "types" à la Caml : 'a, 'b, 'c, etc. *) let a_value = Char.code('a') in let z_value = Char.code('z') in let str = if (nb >= 0 && nb <= (z_value - a_value)) then ("'" ^ (Char.escaped (Char.chr(a_value + nb)))) else ("'a" ^ (string_of_int nb)) in str | Alias(n,t) -> if alias then n else type_to_string_gen alias t in str let (type_to_string : t -> string) = type_to_string_gen false let (type_to_string_alias : t -> string) = type_to_string_gen true let (type_of_string : string -> t) = function | "bool" -> Bool | "real" -> Real | "float" -> Real | "int" -> Int | "string" -> String | s -> failwith (s ^ ": unsupported type.\n") type vntl = (string * t) list type subst = (string * v) type access = Idx of int | Fld of ident | Sle of int * int * int * int (* exported *) let rec (update_val : v -> v -> access list -> v) = fun pre_v v access -> match pre_v,access with | _,[] -> v | A a, (Sle(f,l,s,w))::access -> ( let a = Array.copy a in let j = ref 0 in let sub_array = Array.make w U in for i = f to l do if (i - f) mod s = 0 then ( sub_array.(!j) <- a.(i); incr j ); done; let sub_array = match update_val (A sub_array) v access with A sub_array -> sub_array | _ -> assert false in j := 0; for i = f to l do if (i - f) mod s = 0 then ( a.(i) <- sub_array.(!j); incr j ); done; A a ) | A a, (Idx i)::access -> let a = Array.copy a (* necessary for arrays of arrays. It would probably more clever to only copy a_i though. *) in let a_i = update_val a.(i) v access in a.(i) <- a_i; A a | S(fl), (Fld fn)::access -> S (List.map (fun (fn2,v2) -> if fn=fn2 then fn,update_val v2 v access else (fn2,v2)) fl) | U,_ -> assert false (* create_val v access *) | _,_ -> assert false (* finish me *) (* exported *) let rec (create_u_val : t -> v) = fun vt -> match vt with | Array(vt,size) -> let a = Array.make size U in for i=0 to size-1 do a.(i) <- create_u_val vt done; A a | Struct(_sn,fl) -> S(List.map (fun (fn,ft) -> fn, create_u_val ft) fl) | _ -> U (* seems slower (??) *) let (create_val : t -> v -> access list -> v) = fun vt v access -> let u_val = create_u_val vt in update_val u_val v access let (_create_val_alt : t -> v -> access list -> v) = fun vt v access -> match vt,access with | _,[] -> v | Array(vt,size), (Sle(f,l,s,w))::access -> ( let j = ref 0 in let a = Array.make size U in let vt = Array(vt,w) in let sub_array = match create_val vt v access with A sa -> sa | _ -> assert false in for i = f to l do if (i - f) mod s = 0 then ( a.(i) <- sub_array.(!j); incr j ); done; A a ) | Array(vt,size), (Idx i)::access -> let a = Array.make size U in let a_i = create_val vt v access in a.(i) <- a_i; A a | Struct(_sn,fl), (Fld fn)::access -> S(List.map (fun (fn2,vt2) -> if fn=fn2 then fn,create_val vt2 v access else fn2,U) fl) | _,_ -> assert false