package archetype
Archetype language compiler
Install
Dune Dependency
Authors
Maintainers
Sources
1.3.0.tar.gz
md5=eecc053d9379ea46d2146931cef1d2af
sha512=f807737647e370d9c830d88c4b85f27b1fdbdf83f5ee0afb80dc8ab0af3b051c432806b4d2f23da50b4c13d715b08d9aa4dab6a9aaa87acefacf2d21fb6a5fcc
doc/src/archetype/extract_w.ml.html
Source file extract_w.ml
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open Location open Tools module M = Model module MapString = Map.Make(String) type prover = { id: int; name: string; version: string; timelimit: int; steplimit: int; memlimit: int; } [@@deriving yojson, show {with_path = false}] type result = { status: string; time: string; steps: int; } [@@deriving yojson, show {with_path = false}] type proof = { prover_id: string; result: result; } [@@deriving yojson, show {with_path = false}] type goal = { name: string; expl: string; proved: bool; proofs: proof list; transf: transf option; } [@@deriving yojson, show {with_path = false}] and transf = { name: string; goals: goal list; } type theory = { name: string; proved: bool; goals: goal list; } [@@deriving yojson, show {with_path = false}] type file = { format: string; theory: theory list; } [@@deriving yojson, show {with_path = false}] type why3session = { shape_version : string; provers: prover list; file: file; } [@@deriving yojson, show {with_path = false}] (* -------------------------------------------------------------------- *) let mk_prover id name version timelimit steplimit memlimit = { id; name; version; timelimit; steplimit; memlimit } let mk_result status time steps : result = { status; time; steps } let mk_proof prover_id result : proof = { prover_id; result } let mk_goal ?(proofs = []) ?transf name expl proved : goal = { name; expl; proved; proofs; transf } let mk_transf name goals : transf = { name; goals } let mk_theory ?(goals = []) name proved : theory = { name; proved; goals } let mk_file ?(theory = []) format : file = { format; theory } let mk_why3session ?(provers = []) shape_version file : why3session = { shape_version; provers; file } (* -------------------------------------------------------------------- *) let doit (i : Xmlm.signal) = match i with | `El_start ((a, b), attrs) -> Format.eprintf "(%s, %s): %a@\n" a b (Printer_tools.pp_list ", " (fun fmt (k, v) -> Format.fprintf fmt "(%s, %s) -> %s" (fst k) (snd k) v )) attrs | `El_end -> Format.eprintf "El_end@\n" | `Data s -> Format.eprintf "data: %s@\n" s | `Dtd _ -> Format.eprintf "dtd" let is_tag id = function | `El_start ((_, a), _) -> String.equal id a | _ -> false let is_end = function | `El_end -> true | _ -> false let skip tag c i = while not (is_tag tag !c) do c := Xmlm.input i done let extract_attributes (attrs : Xmlm.attribute list) : string MapString.t = let map = MapString.empty in List.fold_left (fun accu (a : Xmlm.attribute) -> let k = fst a |> snd in let v = snd a in MapString.add k v accu) map attrs (* -------------------------------------------------------------------- *) let extract_cb f dft key map = MapString.find_opt key map |> (function | Some v -> f v | None -> dft) let extract_int key map = extract_cb int_of_string 0 key map let extract_bool key map = extract_cb bool_of_string false key map let extract_string key map = extract_cb (fun x -> x) "" key map let extract_prover (c : Xmlm.signal)= match c with | `El_start ((_, a), attrs) when String.equal a "prover" -> begin let map = extract_attributes attrs in let id = MapString.find "id" map |> int_of_string in let name = MapString.find "name" map in let version = MapString.find "version" map in let timelimit = MapString.find "timelimit" map |> int_of_string in let steplimit = MapString.find "steplimit" map |> int_of_string in let memlimit = MapString.find "memlimit" map |> int_of_string in mk_prover id name version timelimit steplimit memlimit end | _ -> assert false let extract_provers c i = let provers = ref [] in while is_tag "prover" !c do let p = extract_prover !c in provers := p::!provers; c := Xmlm.input i; c := Xmlm.input i done; List.rev !provers let extract_result c i : result = match !c with | `El_start ((_, a), attrs) when String.equal a "result" -> begin let map = extract_attributes attrs in let status = extract_string "status" map in let time = extract_string "time" map in let steps = extract_int "steps" map in c := Xmlm.input i; mk_result status time steps end | _ -> assert false let extract_proof (c : Xmlm.signal ref) i = match !c with | `El_start ((_, a), attrs) when String.equal a "proof" -> begin let map = extract_attributes attrs in let prover = extract_string "prover" map in c := Xmlm.input i; let results = extract_result c i in c := Xmlm.input i; (* doit !c; *) c := Xmlm.input i; mk_proof prover results end | _ -> assert false let extract_proofs c i = let proofs = ref [] in while is_tag "proof" !c do let t = extract_proof c i in proofs := t::!proofs done; List.rev !proofs let rec extract_goal c i : goal = match !c with | `El_start ((_, a), attrs) when String.equal a "goal" -> begin let map = extract_attributes attrs in let name = extract_string "name" map in let expl = extract_string "expl" map in let proved = extract_bool "proved" map in c := Xmlm.input i; let proofs = extract_proofs c i in (* c := Xmlm.input i; *) (* doit !c; *) let transf = if (is_tag "transf" !c) then Some (extract_trans c i) else None in c := Xmlm.input i; mk_goal ~proofs ?transf name expl proved end | _ -> assert false and extract_trans c i : transf = match !c with | `El_start ((_, a), attrs) when String.equal a "transf" -> begin let map = extract_attributes attrs in let name = extract_string "name" map in c := Xmlm.input i; let goals = extract_goals c i in c := Xmlm.input i; mk_transf name goals end | _ -> assert false and extract_goals c i : goal list = let goals = ref [] in while is_tag "goal" !c do let t = extract_goal c i in goals := t::!goals; done; List.rev !goals let extract_theory c i : theory = match !c with | `El_start ((_, a), attrs) when String.equal a "theory" -> begin let map = extract_attributes attrs in let name = extract_string "name" map in let proved = extract_bool "proved" map in c := Xmlm.input i; let goals : goal list = extract_goals c i in c := Xmlm.input i; (* doit !c; *) mk_theory ~goals name proved end | _ -> assert false let extract_theories c i : theory list = let theories = ref [] in while is_tag "theory" !c do let t = extract_theory c i in theories := t::!theories done; List.rev !theories let to_whysession (ic : in_channel) : why3session = let i = Xmlm.make_input ~strip:true (`Channel ic) in let _ = Xmlm.input i in let w3s = match Xmlm.input i with | `El_start ((_, _), _attr) -> begin (* Format.printf "(%s, %s)@\n" a b; *) let c = ref (Xmlm.input i) in let provers = extract_provers c i in while not (is_tag "theory" !c) do c := Xmlm.input i done; let theory : theory list = extract_theories c i in mk_why3session ~provers "" (mk_file ~theory "") end | _ -> assert false in w3s (* -------------------------------------------------------------------- *) type status = | Ssuccessful | Sfail of int [@@deriving yojson, show {with_path = false}] type res = { name: string; total: int; status: status; } [@@deriving yojson, show {with_path = false}] type kind = | Kvariable of string | Kasset of string | KassetField of string * string | KenumField of string * string | KentryPostcond of string * string | KentryInv of string * string [@@deriving yojson, show {with_path = false}] type item = { id: string; kind: kind; formula: string option; res: res; } [@@deriving yojson, show {with_path = false}] type report = { name: string; items: item list; } [@@deriving yojson, show {with_path = false}] (* -------------------------------------------------------------------- *) let mk_res name total status : res = { name; total; status } let mk_item id kind formula res : item = { id; kind; formula; res } let mk_report ?(items = []) name : report = { name; items } (* -------------------------------------------------------------------- *) let extract (m : M.model) (w3s : why3session) = let compute_res _w3s _id _kind : res = mk_res "" 0 (Sfail 0) in let for_specification ?fname accu (spec : M.specification) = List.fold_left (fun accu (postcondition : M.postcondition) -> let kind = match fname with | Some fname -> KentryPostcond (fname, unloc postcondition.name) | None -> assert false in let formula = Some "" in let label = unloc postcondition.name in let res = compute_res w3s label kind in let item = mk_item label kind formula res in item::accu (* List.fold_left (fun accu (invariant : M.invariant) -> assert false; ) accu postcondition.invariants *) ) accu spec.postconditions (* List.fold_left (fun accu (x, invs) -> let kind = match fname with | Some fname -> KentryPostcond (fname, unloc x) | None -> assert false in List.fold_left (fun accu (y : M.label_term) -> let formula = Some "" in let label = unloc y.label in let res = compute_res w3s label kind in let item = mk_item label kind formula res in item::accu ) accu invs ) accu spec.invariants *) in let for_decl accu (d : M.decl_node) = let for_dvar accu (v : M.var) = let kind = Kvariable (unloc v.name) in List.fold_left (fun accu (x : M.label_term) -> let formula = Some "" in let label = unloc x.label in let res = compute_res w3s label kind in let item = mk_item label kind formula res in item::accu ) accu v.invariants in match d with | Dvar v -> for_dvar accu v | Denum _e -> accu | Dasset _a -> accu | Drecord _r -> accu | Devent _r -> accu in let for_function accu (function__ : M.function__) = let spec = function__.spec in let fname = match function__.node with | Entry fn -> unloc fn.name | Function (fn, _) -> unloc fn.name | Getter (fn, _) -> unloc fn.name | View (fn, _) -> unloc fn.name in match spec with | Some spec -> for_specification ~fname accu spec | None -> accu in let items = [] |> (fun x -> List.fold_left for_decl x m.decls) |> (fun x -> List.fold_left for_function x m.functions) in mk_report ~items (unloc m.name) (* -------------------------------------------------------------------- *) let process (_m : M.model) (path_xml : string) = let w3s: why3session = path_xml |> open_in |> to_whysession in Format.printf "%s@\n" (Yojson.Safe.to_string (why3session_to_yojson w3s)) (* let report = extract m w3s in *) (* Format.printf "%s@\n" (Yojson.Safe.to_string (report_to_yojson report)) *)
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