ENIAM_MWE.ml
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(*
* ENIAMsubsyntax: MWE, abbreviation and sentence detecion for Polish
* Copyright (C) 2016 Wojciech Jaworski <wjaworski atSPAMfree mimuw dot edu dot pl>
* Copyright (C) 2016 Institute of Computer Science Polish Academy of Sciences
*
* This library is free software: 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, either version 3 of the License, or
* (at your option) any later version.
*
* This library 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.
*
* You should have received a copy of the GNU Lesser General Public License
* along with this program. If not, see <http://www.gnu.org/licenses/>.
*)
open Xstd
open ENIAMsubsyntaxTypes
open ENIAMtokenizerTypes
type sel = V of string | S of string | G
type t =
L of string * string * sel list
| O of string
| D of string * string
let process_interp lemma interp =
match Xstring.split ":" interp with
cat :: interp -> L(lemma,cat,Xlist.map interp (function
"$c" -> S "c"
| "$n" -> S "n"
| "$g" -> S "g"
| "$d" -> S "d"
| "$C" -> S "C"
| "_" -> G
| s -> if String.get s 0 = '$' then failwith ("process_interp: " ^ s) else V s))
| _ -> failwith "process_interp"
let load_mwe_dict filename dict =
File.fold_tab filename dict (fun dict -> function
[orths; lemma; interp] ->
let orths = Xstring.split " " orths in
if orths = [] then failwith "load_mwe_dict" else
let s = List.hd orths in
let orths = Xlist.map orths (fun s -> O s) in
let lemma,cat,interp = match process_interp lemma interp with
L(lemma,cat,interp) -> lemma,cat,interp
| _ -> failwith "load_mwe_dict2" in
StringMap.add_inc dict s [orths,lemma,cat,interp] (fun l -> (orths,lemma,cat,interp) :: l)
| l -> failwith ("load_mwe_dict '" ^ String.concat "\t" l ^ "'"))
(*<<<<<<< HEAD
let load_mwe_dict () =
let dict = load_dict StringMap.empty brev_filename in
let dict = try load_dict dict fixed_filename with _ -> (prerr_endline ("ENIAMsubsyntax file " ^ fixed_filename ^ " not found"); dict) in
(* let dict = load_dict dict complete_entries_filename in*)
let dict = load_dict dict mwe_filename in
dict
let mwe_dict = ref (StringMap.empty : (string * string * string) list StringMap.t)
let preselect_dict orths dict =
StringSet.fold orths [] (fun rules orth ->
try
let l = StringMap.find dict orth in
Xlist.fold l rules (fun rules (orth,lemma,interp) ->
(* print_endline ("preselect_dict: " ^ orth); *)
let match_list = Str.split (Str.regexp " ") orth in
let b = Xlist.fold match_list true (fun b s ->
(* if not (StringSet.mem orths s) then print_endline s; *)
StringSet.mem orths s && b) in
if b then (match_list,lemma,interp) :: rules else rules)
with Not_found -> rules)*)
let process_orth = function
[Lexer.T lemma; Lexer.B("(",")",[Lexer.T interp])] -> process_interp lemma interp
| [Lexer.T orth] -> O orth
| [Lexer.B("{","}",l); Lexer.B("(",")",[Lexer.T interp])] -> process_interp (Lexer.string_of_token_list l) interp
| [Lexer.B("{","}",l)] -> O(Lexer.string_of_token_list l)
| tokens -> failwith ("process_orth: " ^ Lexer.string_of_token_list tokens)
let load_mwe_dict2 filename (dict,dict2) =
File.fold_tab filename (dict,dict2) (fun (dict,dict2) -> function
[orths; lemma] ->
(* print_endline (orths ^ "\t" ^ lemma); *)
let tokens = Lexer.split "(\\|)\\|{\\|}\\| " orths in
(* print_endline ("load_dict2 1: " ^ Lexer.string_of_token_list tokens); *)
let tokens = Lexer.find_brackets ["{","}";"(",")"] [] tokens in
(* print_endline ("load_dict2 2: " ^ Lexer.string_of_token_list tokens); *)
let orths = List.rev (Xlist.rev_map (Lexer.split_symbol (Lexer.T " ") [] tokens) process_orth) in
let tokens = Lexer.split "(\\|)\\|{\\|}" lemma in
(* print_endline ("load_dict2 3: " ^ Lexer.string_of_token_list tokens); *)
let tokens = Lexer.find_brackets ["{","}";"(",")"] [] tokens in
(* print_endline ("load_dict2 4: " ^ Lexer.string_of_token_list tokens); *)
let lemma,cat,interp = match process_orth tokens with
L(lemma,cat,interp) -> lemma,cat,interp
| _ -> failwith "load_mwe_dict2" in
if orths = [] then failwith "load_mwe_dict2" else
(match List.hd orths with
L(s,_,_) -> dict, StringMap.add_inc dict2 s [orths,lemma,cat,interp] (fun l -> (orths,lemma,cat,interp) :: l)
| O s -> StringMap.add_inc dict s [orths,lemma,cat,interp] (fun l -> (orths,lemma,cat,interp) :: l), dict2
| D _ -> failwith "load_mwe_dict2")
| l -> failwith ("load_mwe_dict2 '" ^ String.concat "\t" l ^ "'"))
let load_mwe_dicts () =
let dict = File.catch_no_file (load_mwe_dict brev_filename) StringMap.empty in
let dict = File.catch_no_file (load_mwe_dict fixed_filename) dict in
let dict = File.catch_no_file (load_mwe_dict mwe_filename) dict in
let dict,dict2 = File.catch_no_file (load_mwe_dict2 sejf_filename) (dict,StringMap.empty) in
let dict,dict2 = File.catch_no_file (load_mwe_dict2 sejfek_filename) (dict,dict2) in
let dict,dict2 = File.catch_no_file (load_mwe_dict2 sawa_filename) (dict,dict2) in
let dict,dict2 = File.catch_no_file (load_mwe_dict2 mwe2_filename) (dict,dict2) in
dict,dict2
let mwe_dict = ref (StringMap.empty : (t list * string * string * sel list) list StringMap.t)
let mwe_dict2 = ref (StringMap.empty : (t list * string * string * sel list) list StringMap.t)
let get_orths paths =
IntMap.fold paths StringSet.empty (fun orths _ map ->
IntMap.fold map orths (fun orths _ l ->
TokenEnvSet.fold l orths (fun orths t ->
StringSet.add orths (ENIAMtokens.get_orth t.token))))
let get_lemmas paths =
IntMap.fold paths StringSet.empty (fun orths _ map ->
IntMap.fold map orths (fun orths _ l ->
TokenEnvSet.fold l orths (fun orths t ->
StringSet.add orths (ENIAMtokens.get_lemma t.token))))
let get_intnum_orths paths =
IntMap.fold paths StringMap.empty (fun orths _ map ->
IntMap.fold map orths (fun orths _ l ->
TokenEnvSet.fold l orths (fun orths t ->
match t.token with
Dig(lemma,"intnum") -> StringMap.add_inc orths (ENIAMtokens.get_orth t.token) (StringSet.singleton lemma) (fun set -> StringSet.add set lemma)
| _ -> orths)))
let preselect orths lemmas rules l =
Xlist.fold l rules (fun rules (match_list,lemma,cat,interp) ->
let b = Xlist.fold match_list true (fun b -> function
O s -> StringSet.mem orths s && b
| L(s,_,_) -> StringSet.mem lemmas s && b
| D(s,_) -> failwith "preselect") in
if b then (Xlist.size match_list > 1,match_list,lemma,cat,interp) :: rules else rules)
let preselect_dict orths lemmas dict rules =
StringSet.fold orths rules (fun rules orth ->
try
preselect orths lemmas rules (StringMap.find dict orth)
with Not_found -> rules)
let preselect_dict2 orths lemmas dict2 rules =
StringSet.fold lemmas rules (fun rules lemma ->
try
preselect orths lemmas rules (StringMap.find dict2 lemma)
with Not_found -> rules)
let add_ordnum_rules orths rules =
StringMap.fold orths rules (fun rules orth lemmas ->
StringSet.fold lemmas rules (fun rules lemma ->
(* Printf.printf "%s %s\n%!" orth lemma; *)
(false,[D(orth,"intnum");O "."],lemma,"ordnum",[]) :: rules))
let select_rules paths mwe_dict mwe_dict2 =
let orths = get_orths paths in
let lemmas = get_lemmas paths in
let intnum_orths = get_intnum_orths paths in
let rules = preselect_dict orths lemmas mwe_dict [] in
let rules = preselect_dict2 orths lemmas mwe_dict2 rules in
let rules = add_ordnum_rules intnum_orths rules in
rules
let rec check_interp sels = function
[],[] -> true
| s :: interp, ["_"] :: interp2 -> check_interp sels (interp,interp2)
| V s :: interp, l2 :: interp2 -> if Xlist.mem l2 s then check_interp sels (interp,interp2) else false
| S s :: interp, l2 :: interp2 ->
(try
let l = Xlist.assoc sels s in
let b = Xlist.fold l false (fun b s -> Xlist.mem l2 s || b) in
if b then check_interp sels (interp,interp2) else false
with Not_found -> check_interp sels (interp,interp2))
| G :: interp, l2 :: interp2 -> check_interp sels (interp,interp2)
| _ -> failwith "check_interp"
let rec get_sels sels = function
[],[] -> sels
| s :: interp, ["_"] :: interp2 -> get_sels sels (interp,interp2)
| V s :: interp, l2 :: interp2 -> get_sels sels (interp,interp2)
| S s :: interp, l2 :: interp2 ->
(try
let l = Xlist.assoc sels s in
let sels = List.remove_assoc s sels in
let l = Xlist.fold l [] (fun l s -> if Xlist.mem l2 s then s :: l else l) in
get_sels ((s,l) :: sels) (interp,interp2)
with Not_found -> get_sels ((s,l2) :: sels) (interp,interp2))
| G :: interp, l2 :: interp2 -> get_sels sels (interp,interp2)
| _ -> failwith "get_sels"
let rec match_path_rec map found (t:token_env) sels rev = function
[] -> (t :: rev, sels) :: found
| s :: l ->
let map2 = try IntMap.find map t.next with Not_found -> IntMap.empty in
let found2 = IntMap.fold map2 [] (fun found2 _ l ->
TokenEnvSet.fold l found2 (fun found2 new_t ->
match s,new_t.token with
O s, token -> if ENIAMtokens.get_orth token = s then (new_t,sels) :: found2 else found2
| L(s,cat,interp), Lemma(s2,cat2,interps2) ->
Xlist.fold interps2 found2 (fun found2 interp2 ->
if s=s2 && cat=cat2 && check_interp sels (interp,interp2) then
(new_t,get_sels sels (interp,interp2)) :: found2 else found2)
| D(s,cat), Dig(s2,cat2) -> if s=s2 && cat=cat2 then (new_t,sels) :: found2 else found2
| _ -> found2)) in
Xlist.fold found2 found (fun found (new_t,sels) -> match_path_rec map found new_t sels (t :: rev) l)
let match_path map = function
[] -> failwith "match_path"
| s :: l ->
let found = IntMap.fold map [] (fun found i map2 ->
IntMap.fold map2 found (fun found j l ->
TokenEnvSet.fold l found (fun found t ->
match s,t.token with
O s, token -> if ENIAMtokens.get_orth token = s then (t,[]) :: found else found
| L(s,cat,interp), Lemma(s2,cat2,interps2) ->
Xlist.fold interps2 found (fun found interp2 ->
if s=s2 && cat=cat2 && check_interp [] (interp,interp2) then
(t,get_sels [] (interp,interp2)) :: found else found)
| D(s,cat), Dig(s2,cat2) -> if s=s2 && cat=cat2 then (t,[]) :: found else found
| _ -> found))) in
Xlist.fold found [] (fun found (t,sels) -> match_path_rec map found t sels [] l)
let concat_orths l =
let s = String.concat "" (Xlist.map l (fun t -> t.orth ^ (if t.beg+t.len=t.next then "" else " "))) in
let n = Xstring.size s in
if String.get s (n-1) = ' ' then String.sub s 0 (n-1) else s
let create_token is_mwe (matching:token_env list) sels lemma cat interp = (* FIXME: problem z nazwami własnymi *)
let l = List.rev matching in
let beg = (List.hd l).beg in
let t = List.hd matching in
let len = t.beg + t.len - beg in
{empty_token_env with
orth=concat_orths l;
beg=beg;
len=len;
next=t.next;
token=Lemma(lemma,cat,[Xlist.map interp (function
S s -> (try Xlist.assoc sels s with Not_found -> ["_"])
| V s -> Xstring.split "\\." s
| G -> ["_"])]);
weight=0.; (* FIXME: dodać wagi do konkretnych reguł i uwzględnić wagi maczowanych tokenów *)
attrs=(if is_mwe then [MWE ]else []) @ ENIAMtokens.merge_attrs l}
let add_token paths t =
let map = try IntMap.find paths t.beg with Not_found -> IntMap.empty in
let map = IntMap.add_inc map t.next (TokenEnvSet.singleton t) (fun set -> TokenEnvSet.add set t) in
IntMap.add paths t.beg map
let apply_rule paths (is_mwe,match_list,lemma,cat,interp) =
(* print_endline ("apply_rule: " ^ lemma); *)
let matchings_found = match_path paths match_list in
Xlist.fold matchings_found paths (fun paths (matching,sels) ->
try
let token = create_token is_mwe matching sels lemma cat interp in
add_token paths token
with Not_found -> paths)
let process (paths,last) =
let paths = Xlist.fold paths IntMap.empty add_token in
let rules = select_rules paths !mwe_dict !mwe_dict2 in
let paths = Xlist.fold rules paths apply_rule in
let rules = select_rules paths !mwe_dict !mwe_dict2 in
let paths = Xlist.fold rules paths apply_rule in
let rules = select_rules paths !mwe_dict !mwe_dict2 in
let paths = Xlist.fold rules paths apply_rule in
let rules = select_rules paths !mwe_dict !mwe_dict2 in
let paths = Xlist.fold rules paths apply_rule in
let paths = IntMap.fold paths [] (fun paths _ map ->
IntMap.fold map paths (fun paths _ l ->
TokenEnvSet.fold l paths (fun paths t ->
t :: paths))) in
ENIAMpaths.sort (paths,last)