ruleGenerator.ml
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open Xstd
open Printf
open Types
(* let alternation_map = Rules.alternation_map *)
let rule_types = Xlist.fold [
(* Xlist.map (StringMap.find alternation_map "obce_ch") (fun (_,s,t) -> sprintf "%sch\t%s" s t), "{x}ych\t{x}";
Xlist.map (StringMap.find alternation_map "obce_ch") (fun (_,s,t) -> sprintf "%smi\t%s" s t), "{x}ymi\t{x}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_iy") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{'}y\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_iy") (fun (_,s,t) -> sprintf "%sch\t%s" s t), "{'}ych\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_iy") (fun (_,s,t) -> sprintf "%sm\t%s" s t), "{'}ym\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_iy") (fun (_,s,t) -> sprintf "%smi\t%s" s t), "{'}ymi\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%se\t%s" s t), "{'}e\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sego\t%s" s t), "{'}ego\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sej\t%s" s t), "{'}ej\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%semu\t%s" s t), "{'}emu\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sa\t%s" s t), "{'}a\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%są\t%s" s t), "{'}ą\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%so\t%s" s t), "{'}o\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sę\t%s" s t), "{'}ę\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%su\t%s" s t), "{'}u\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sów\t%s" s t), "{'}ów\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%som\t%s" s t), "{'}om\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sami\t%s" s t), "{'}ami\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sach\t%s" s t), "{'}ach\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sowi\t%s" s t), "{'}owi\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sowie\t%s" s t), "{'}owie\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sum\t%s" s t), "{'}um\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ae") (fun (_,s,t) -> sprintf "%sem\t%s" s t), "{'}em\t{'}";
(* Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_ii") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{'}ii\t{'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_yj") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{'}yj\t{'}";*)
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_wyglos") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{'}ε\t{'}";
(* Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{v'}y\t{v'}"; *)
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sch\t%s" s t), "{v'}ych\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sm\t%s" s t), "{v'}ym\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%smi\t%s" s t), "{v'}ymi\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%se\t%s" s t), "{v'}e\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sego\t%s" s t), "{v'}ego\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sej\t%s" s t), "{v'}ej\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%semu\t%s" s t), "{v'}emu\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sa\t%s" s t), "{v'}a\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%są\t%s" s t), "{v'}ą\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%so\t%s" s t), "{v'}o\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sę\t%s" s t), "{v'}ę\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%su\t%s" s t), "{v'}u\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sów\t%s" s t), "{v'}ów\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%som\t%s" s t), "{v'}om\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sami\t%s" s t), "{v'}ami\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sach\t%s" s t), "{v'}ach\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sowi\t%s" s t), "{v'}owi\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sowie\t%s" s t), "{v'}owie\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sum\t%s" s t), "{v'}um\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe") (fun (_,s,t) -> sprintf "%sem\t%s" s t), "{v'}em\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_miekkie_nowe_wyglos") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{v'}ε\t{v'}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_y") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{}y\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_y") (fun (_,s,t) -> sprintf "%sch\t%s" s t), "{}ych\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_y") (fun (_,s,t) -> sprintf "%sm\t%s" s t), "{}ym\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_y") (fun (_,s,t) -> sprintf "%smi\t%s" s t), "{}ymi\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_e") (fun (_,s,t) -> sprintf "%se\t%s" s t), "{}e\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_e") (fun (_,s,t) -> sprintf "%sego\t%s" s t), "{}ego\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_e") (fun (_,s,t) -> sprintf "%sej\t%s" s t), "{}ej\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_e") (fun (_,s,t) -> sprintf "%semu\t%s" s t), "{}emu\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sa\t%s" s t), "{}a\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%są\t%s" s t), "{}ą\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%so\t%s" s t), "{}o\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sę\t%s" s t), "{}ę\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%su\t%s" s t), "{}u\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sów\t%s" s t), "{}ów\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%som\t%s" s t), "{}om\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sami\t%s" s t), "{}ami\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sach\t%s" s t), "{}ach\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sowi\t%s" s t), "{}owi\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sowie\t%s" s t), "{}owie\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_a") (fun (_,s,t) -> sprintf "%sum\t%s" s t), "{}um\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_e") (fun (_,s,t) -> sprintf "%sem\t%s" s t), "{}em\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_i") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{}'i\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_ie") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{}'ie\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_wyglos") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{}ε\t{}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe_y") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{v}y\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe_y") (fun (_,s,t) -> sprintf "%sch\t%s" s t), "{v}ych\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe_y") (fun (_,s,t) -> sprintf "%sm\t%s" s t), "{v}ym\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe_y") (fun (_,s,t) -> sprintf "%smi\t%s" s t), "{v}ymi\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%se\t%s" s t), "{v}e\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sego\t%s" s t), "{v}ego\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sej\t%s" s t), "{v}ej\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%semu\t%s" s t), "{v}emu\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sa\t%s" s t), "{v}a\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%są\t%s" s t), "{v}ą\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%so\t%s" s t), "{v}o\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sę\t%s" s t), "{v}ę\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%su\t%s" s t), "{v}u\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sów\t%s" s t), "{v}ów\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%som\t%s" s t), "{v}om\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sami\t%s" s t), "{v}ami\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sach\t%s" s t), "{v}ach\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sowi\t%s" s t), "{v}owi\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sowie\t%s" s t), "{v}owie\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe") (fun (_,s,t) -> sprintf "%sum\t%s" s t), "{v}um\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe_ie") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{v}'ie\t{v}";
Xlist.map (StringMap.find alternation_map "funkcjonalnie_twarde_nowe_wyglos") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{v}ε\t{v}";
Xlist.map (StringMap.find alternation_map "kapitaliki_y") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{-}y\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_y") (fun (_,s,t) -> sprintf "%sch\t%s" s t), "{-}ych\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_y") (fun (_,s,t) -> sprintf "%sm\t%s" s t), "{-}ym\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_y") (fun (_,s,t) -> sprintf "%smi\t%s" s t), "{-}ymi\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%se\t%s" s t), "{-}e\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sego\t%s" s t), "{-}ego\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sej\t%s" s t), "{-}ej\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%semu\t%s" s t), "{-}emu\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sa\t%s" s t), "{-}a\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%są\t%s" s t), "{-}ą\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%so\t%s" s t), "{-}o\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sę\t%s" s t), "{-}ę\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%su\t%s" s t), "{-}u\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sów\t%s" s t), "{-}ów\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%som\t%s" s t), "{-}om\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sem\t%s" s t), "{-}em\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sami\t%s" s t), "{-}ami\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sach\t%s" s t), "{-}ach\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sowi\t%s" s t), "{-}owi\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sowie\t%s" s t), "{-}owie\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_a") (fun (_,s,t) -> sprintf "%sum\t%s" s t), "{-}um\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_ie") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{-}'ie\t{-}";
Xlist.map (StringMap.find alternation_map "kapitaliki_wyglos") (fun (_,s,t) -> sprintf "%s\t%s" s t), "{-}ε\t{-}";*)
] StringMap.empty (fun map (l,code) ->
Xlist.fold l map (fun map rule -> StringMap.add_inc map rule code (fun code2 ->
print_endline ("rule_types: " ^ rule ^ " " ^ code ^ " " ^ code2); code2)))
let rec cut_prefix_list c ll =
Xlist.map ll (function
[] -> raise Not_found
| x :: l -> if x = c then l else raise Not_found)
let rec find_common_prefix_length_rec n = function
[] :: _ -> n
| (c :: l) :: ll ->
(try
let ll = cut_prefix_list c ll in
find_common_prefix_length_rec (n + String.length c) (l :: ll)
with Not_found -> n)
| [] -> failwith "find_common_prefix_length_rec"
let find_common_prefix_length l =
let ll = Xlist.map l Xunicode.utf8_chars_of_utf8_string(*Stem.text_to_chars*) in
find_common_prefix_length_rec 0 ll
let cut_prefixn i s =
let n = String.length s in
if i >= n then "" else
try String.sub s i (n-i) with _ -> failwith ("cut_prefixn: " ^ s ^ " " ^ string_of_int i)
let rule_code (a,b) =
let s = sprintf "%s\t%s" a b in
try StringMap.find rule_types s, true with Not_found ->
if Xstring.check_prefix b a then
let suf = Xstring.cut_prefix b a in
suf ^ "_" ^ (String.concat "_" (List.rev (Xunicode.utf8_chars_of_utf8_string(*Stem.text_to_chars*) b))), false
else "???", false
let generate_rule stem stem_pref orth =
let n = find_common_prefix_length [stem_pref;orth] in
let a = cut_prefixn n orth in
let b = cut_prefixn n stem in
let c,f = rule_code (a,b) in
if f then "\t" ^ c else sprintf "%s\t%s\t%s" c a b
let rec classify_entry entry = function
(class_interp,suf,cl) :: class_sel ->
let l = Xlist.fold entry.forms [] (fun l form ->
if form.interp = class_interp then form.orth :: l else l) in
let b = Xlist.fold l false (fun b orth ->
if Xstring.check_sufix suf orth then true else b) in
if b then cl else classify_entry entry class_sel
(* let l = StringSet.to_list (Xlist.fold l StringSet.empty (fun set orth ->
if check_prefix stem orth then
StringSet.add set (cut_prefix stem orth)
else set)) in
if Xlist.mem l suf then cl else classify_noun lemma stem interps class_sel
let l = StringSet.to_list (Xlist.fold l StringSet.empty (fun set orth ->
if check_prefix stem orth then
StringSet.add set (cut_prefix stem orth)
else set)) in
if Xlist.mem l suf then cl else classify_noun lemma stem interps class_sel*)
(* (match l with
[] -> classify_noun lemma stem interps class_sel
| [s] -> if s = suf then cl else classify_noun lemma stem interps class_sel
| _ -> print_endline ("classify_noun multiple class: " ^ lemma ^ " " ^ String.concat " " l);
classify_noun lemma stem interps class_sel)*)
| [] -> (*print_endline ("classify_noun unknown class: " ^ lemma);*) "X"
let entry_classes =
List.flatten (Xlist.map ["m1";"m2";"m3";"n1";"n2";"f";"p1";"p2";"p3"] (fun gender ->
Xlist.map ["ii";"ji";"yj"] (fun sufix ->
"subst:pl:gen:" ^ gender, sufix,"II"))) @
List.flatten (Xlist.map ["m1";"m2";"m3";"n1";"n2";"f"] (fun gender ->
Xlist.map ["a"] (fun sufix ->
"subst:sg:nom:" ^ gender, sufix,"A"))) @
List.flatten (Xlist.map ["m1";"m2";"m3";"n1";"n2";"f"] (fun gender ->
Xlist.map ["ę"] (fun sufix ->
"subst:sg:acc:" ^ gender, sufix,"Ę"))) @
List.flatten (Xlist.map ["m1";"m2";"m3";"n1";"n2";"f"] (fun gender ->
Xlist.map ["ą"] (fun sufix ->
"subst:sg:inst:" ^ gender, sufix,"Ą"))) @
(* List.flatten (Xlist.map ["m1";"m2";"m3";"n1";"n2";"f";"p1";"p2";"p3"] (fun gender ->
Xlist.map ["ym";"im";"m"] (fun sufix ->
"subst:pl:dat:" ^ gender, sufix,"ADJ"))) @
List.flatten (Xlist.map ["m1";"m2";"m3";"n1";"n2";"f"] (fun gender ->
Xlist.map ["a","A";"o","O";"e","E"] (fun (sufix,s) ->
"subst:sg:nom:" ^ gender, sufix,s))) @*)
[
"subst:sg:nom:n2","um","UM";
]
let generate_rules_entry entry =
let stem_pref = Stem.cut_stem_sufix entry.stem in
let cl = classify_entry entry entry_classes in
Xlist.map entry.forms (fun form ->
form.interp,cl ^ "\t" ^ generate_rule entry.stem stem_pref form.orth)
let phon_generate_rules_entry entry =
Xlist.fold entry.phon_stem [] (fun found stem ->
let stem_pref = Stem.cut_stem_sufix stem in
let cl = classify_entry entry entry_classes in
Xlist.fold entry.forms found (fun found form ->
Xlist.fold form.phon_orth found (fun found orth ->
(* printf "lemma=%s stem=%s phon_stem=%s stem_pref=%s phon_orth=%s interp=%s\n%!" entry.lemma entry.stem stem stem_pref orth form.interp; *)
(form.interp,cl ^ "\t" ^ generate_rule stem stem_pref orth) :: found)))
let generate_rules_lu_entry entry =
let stem_pref = Stem.cut_stem_sufix entry.lu_stem in
let v1 = if entry.validated1 then "V" else "" in
let v2 = if entry.validated2 then "V" else "" in
[v1 ^ "A" ^ string_of_int entry.rel_id,generate_rule entry.lu_stem stem_pref entry.lemma1,entry.lemma1 ^ "->" ^ entry.lemma2;
v2 ^ "B" ^ string_of_int entry.rel_id,generate_rule entry.lu_stem stem_pref entry.lemma2,entry.lemma2 ^ "->" ^ entry.lemma1]
let generate_interp_rules rules con_flag group_flag lemma_flag simple_lemma form =
let candidates = Rules.CharTrees.find rules form.orth in
(* printf "S %d\n" (Xlist.size forms); *)
let candidates = Xlist.fold candidates [] (fun candidates (stem,rule) ->
(* printf "R %s\t%s\n" stem (Rules.string_of_rule rule); *)
if stem ^ rule.set = simple_lemma then rule :: candidates else candidates) in
Xlist.rev_map candidates (fun rule ->
let tags = rule.tags in
let tags = if con_flag then snd (Rules.extract_tag "con" [] tags) else tags in
let tags = if group_flag then snd (Rules.extract_tag "group" [] tags) else tags in
let tags = if lemma_flag then snd (Rules.extract_tag "lemma" [] tags) else tags in
let tags = Xlist.sort tags Rules.compare_tag in
String.concat " " (Xlist.map tags (fun (k,v) -> k ^ "=" ^ v)) ^ "\t" ^ form.interp)
(* let check_patal tags =
try
let patal = Xlist.assoc tags "patal" in
let lpatal = Xlist.assoc tags "lpatal" in
patal = lpatal
with Not_found -> true *)
let calculate_number_value = function
"sg" -> 2
| "pl" -> 1
| "sg.pl" -> 0
| _ -> failwith "calculate_number_value2"
let calculate_case_value2 = function
"nom" -> 7
| "gen" -> 6
| "dat" -> 5
| "acc" -> 4
| "inst" -> 3
| "loc" -> 2
| "voc" -> 1
| "" -> 0
| _ -> failwith "calculate_case_value2"
let calculate_case_value s =
let c1,c2,c3 = match Xstring.split "\\." s with
[c1] -> c1,"",""
| [c1;c2] -> c1,c2,""
| c1 :: c2 :: c3 :: _ -> c1,c2,c3
| _ -> failwith "calculate_case_value" in
100 * calculate_case_value2 c1 + 10 * calculate_case_value2 c2 + calculate_case_value2 c3
let calculate_gender_value = function
| "m1" -> 8
| "m2" -> 7
| "m3" -> 6
| "f" -> 5
| "n:ncol" -> 4
| "n:col" -> 3
| "n:pt" -> 2
| "m1:pt" -> 1
| "depr:pl:nom.acc.voc:m2" -> 8
(* | s -> print_endline ("calculate_gender_value: " ^ s); 0 *)
| s -> failwith ("calculate_gender_value: " ^ s)
let calculate_grad_value = function
| "pos" -> 3
| "com" -> 2
| "sub" -> 1
| s -> failwith ("calculate_grad_value: " ^ s)
let calculate_person_value = function
| "pri" -> 3
| "sec" -> 2
| "ter" -> 1
| s -> failwith ("calculate_person_value: " ^ s)
let calculate_rule_value tags interp =
if interp = "" then failwith "calculate_rule_value: empty interp" else
let cat = try Xlist.assoc tags "cat" with Not_found -> "" in
let lemma = try Xlist.assoc tags "lemma" with Not_found -> "" in
let group = try Xlist.assoc tags "group" with Not_found -> "" in
if cat = "noun" || cat = "adj" then
let lemma_val = match lemma with
"a" -> 20
| "ε" -> 19
| "y" -> 18
| "e" -> 17
| "o" -> 16
| "um" -> 15
| "us" -> 14
| "owie" -> 13
| "i" -> 12
| "o(n)" -> 11
| "ę" -> 10
| "anin" -> 9
| "mię" -> 8
| "stwo" -> 7
| _ -> 0 in
let interp_val =
match Xstring.split ":" (List.hd (Xstring.split "|" interp)) with
"subst" :: n :: c :: g -> 10000 * calculate_gender_value (String.concat ":" g) + 1000 * calculate_number_value n + calculate_case_value c
| "depr" :: _ -> 10000 * calculate_gender_value interp
| "adj" :: n :: c :: g :: d :: [] -> 10000 * calculate_grad_value d + 1000 * calculate_number_value n + calculate_case_value c
| ["adjc"] -> 1
| ["adja"] -> 2
| ["adjp"] -> 3
| _ -> failwith ("calculate_rule_value: " ^ interp) in
100000 * lemma_val + interp_val
else if cat = "verb" then
let lemma_val = match lemma with
"ać" -> 20
| "ować" -> 19
| "ywać" -> 18
| "iwać" -> 17
| "awać" -> 16
| "owywać" -> 15
| "uć" -> 14
| "yć" -> 13
| "nąć" -> 12
| "ąć" -> 11
| "eć" -> 10
| "ć" -> 9
| "c" -> 8
| "patal-ć" -> 7
| "patal-eć" -> 6
| "ać2" -> 5
| _ -> 0 in
let group_val = match group with
"a" -> 32
| "aje" -> 31
| "aj" -> 30
| "e" -> 29
| "eje" -> 28
| "ej" -> 27
| "u" -> 26
| "uje" -> 25
| "uj" -> 24
| "y" -> 23
| "yje" -> 22
| "yj" -> 21
| "ε" -> 20
| "J" -> 19
| "j" -> 18
| "Je" -> 17
| "Ja" -> 16
| "Jo" -> 15
| "ną" -> 14
| "ą" -> 13
| "nie" -> 12
| "nię" -> 11
| "ę" -> 10
| "nę" -> 9
| "ie" -> 8
| "ń" -> 7
| "nij" -> 6
| "mij" -> 5
| "n" -> 4
| "o" -> 3
| "io" -> 2
| _ -> 0 in
let interp_val =
match Xstring.split ":" (List.hd (Xstring.split "|" interp)) with
["fin";n;p;_] -> 4200000 + 4 * calculate_number_value n + calculate_person_value p
| ["impt";n;p;_] -> 4100000 + 4 * calculate_number_value n + calculate_person_value p
| ["pcon";_] -> 3000100
| ["pacta"] -> 3000000
| ["pact";n;c;g;_;_] -> 2000000 + 1000 * calculate_number_value n + calculate_case_value c
| ["inf";_] -> 1500000
| ["praet";n;g] -> 1001000 + 1000 * calculate_number_value n
| ["pant";_] -> 1000200
| ["imps";_] -> 1000100
| ["ger";n;c;g;_] -> 1000000 + 1000 * calculate_number_value n + calculate_case_value c
| ["ppas";n;c;g;_;_] -> 1000 * calculate_number_value n + calculate_case_value c
| _ -> 0 in
10000000 * lemma_val + 10000 * group_val + interp_val
else 0
let phon_generate_interp_rules rules selected_tags simple_lemma form =
Xlist.fold form.phon_orth [] (fun found orth ->
let candidates = Rules.CharTrees.find rules orth in
(* printf "S %d\n" (Xlist.size forms); *)
let candidates = Xlist.fold candidates [] (fun candidates (stem,rule) ->
let candidate_lemma = Fonetics.translate_single true Fonetics.rev_rules (stem ^ rule.set) in
(* printf "R %s\t%s\n" stem (Rules.string_of_rule rule); *)
if candidate_lemma = simple_lemma (*&& check_patal rule.tags*) then rule :: candidates else candidates) in
Xlist.rev_map candidates (fun rule ->
let tags = Xlist.fold rule.tags [] (fun tags (k,v) ->
if StringSet.mem selected_tags k then (k,v) :: tags else tags) in
let tags = Xlist.sort tags Rules.compare_tag in
calculate_rule_value rule.tags form.interp,
String.concat " " (Xlist.map tags (fun (k,v) -> k ^ "=" ^ v)) ^ "\t" ^ form.interp) @ found)