diff --git a/OsmAnd/voice/pl-tts/_ttsconfig.p b/OsmAnd/voice/pl-tts/_ttsconfig.p
new file mode 100644
index 0000000000..01f708fff6
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+++ b/OsmAnd/voice/pl-tts/_ttsconfig.p
@@ -0,0 +1,119 @@
+:- op('==', xfy, 500).
+version(100).
+language(pl).
+
+% before each announcement (beep)
+preamble - [].
+
+%% TURNS 
+turn('left', ['skręć w lewo ']).
+turn('left_sh', ['ostro w lewo ']).
+turn('left_sl', ['lekko w lewo ']).
+turn('right', ['skręć w prawo ']).
+turn('right_sh', ['ostro w prawo ']).
+turn('right_sl', ['lekko w prawo ']).
+
+prepare_turn(Turn, Dist) == ['Za ', D, ' ', M] :- 
+			distance(Dist) == D, turn(Turn, M).
+turn(Turn, Dist) == ['Za ', D, M] :- 
+			distance(Dist) == D, turn(Turn, M).
+turn(Turn) == M :- turn(Turn, M).
+
+
+prepare_make_ut(Dist) == ['Za ', D, ' zawróć'] :- 
+		distance(Dist) == D.
+
+prepare_roundabout(Dist) == ['Za ', D, ' wjedź na rondo'] :- 
+		distance(Dist) == D.
+
+make_ut(Dist) ==  ['Za ', D, ' zawróć'] :-
+			distance(Dist) == D.
+make_ut == ['Zawróć '].
+
+roundabout(Dist, _Angle, Exit) == ['Za ', D, ' wjedź na rondo ', E, 'wyjazd'] :- distance(Dist) == D, nth(Exit, E).
+roundabout(_Angle, Exit) == [ E, ' wyjazd'] :- nth(Exit, E).
+
+and_arrive_destination == ['następnie dojedź do celu ']. % Miss and?
+then == ['następnie '].
+reached_destination == ['Cel został osiągnięty! '].
+bear_right == ['trzymaj się prawej '].
+bear_left == ['trzymaj się lewej '].
+route_recalc(_Dist) == []. % ['Wyznaczam nową drogę '].  %nothing to said possibly beep?	
+route_new_calc(Dist) == ['Odległość wynosi ', D] :- distance(Dist) == D. % nothing to said possibly beep?
+
+go_ahead(Dist) == ['Jedź tą drogą ', D]:- distance(Dist) == D.
+go_ahead == ['Jedź tą drogą '].
+
+%% 
+nth(1, 'pierwszy ').
+nth(2, 'drugi ').
+nth(3, 'trzeci ').
+nth(4, 'czwarty ').
+nth(5, 'piąty ').
+nth(6, 'szósty ').
+nth(7, 'siódmy ').  
+nth(8, 'ósmy ').
+nth(9, 'dziewiąty ').
+nth(10, 'dziesiąty ').
+nth(11, 'jedenasty ').
+nth(12, 'dwunasty ').
+nth(13, 'trzynasty ').
+nth(14, 'czternasty ').
+nth(15, 'piętnasty ').
+nth(16, 'szestasty ').
+nth(17, 'siedemnasty ').
+
+
+%%% distance measure
+distance(Dist) == T :- Dist < 1000, dist(Dist, F), append(F, ' metrów',T).
+dist(D, ['10 ']) :-  D < 20, !.
+dist(D, ['20 ']) :-  D < 30, !.
+dist(D, ['30 ']) :-  D < 40, !.
+dist(D, ['40 ']) :-  D < 50, !.
+dist(D, ['50 ']) :-  D < 60, !.
+dist(D, ['60 ']) :-  D < 70, !.
+dist(D, ['70 ']) :-  D < 80, !.
+dist(D, ['80 ']) :-  D < 90, !.
+dist(D, ['90 ']) :-  D < 100, !.
+dist(D, ['100 ']) :-  D < 150, !.
+dist(D, ['150 ']) :-  D < 200, !.
+dist(D, ['200 ']) :-  D < 250, !.
+dist(D, ['250 ']) :-  D < 300, !.
+dist(D, ['300 ']) :-  D < 350, !.
+dist(D, ['350 ']) :-  D < 400, !.
+dist(D, ['400 ']) :-  D < 450, !.
+dist(D, ['450 ']) :-  D < 500, !.
+dist(D, ['500 ']) :-  D < 550, !.
+dist(D, ['550 ']) :-  D < 600, !.
+dist(D, ['600 ']) :-  D < 650, !.
+dist(D, ['650 ']) :-  D < 700, !.
+dist(D, ['700 ']) :-  D < 750, !.
+dist(D, ['750 ']) :-  D < 800, !.
+dist(D, ['800 ']) :-  D < 850, !.
+dist(D, ['850 ']) :-  D < 900, !.
+dist(D, ['900 ']) :-  D < 950, !.
+dist(D, ['950 ']) :-  !.
+
+distance(Dist) == ['ponad jeden kilometr '] :- Dist < 1500.
+distance(Dist) == ['ponad dwa kilometry '] :- Dist < 3000.
+distance(Dist) == ['ponad trzy kilometry '] :- Dist < 4000.
+distance(Dist) == ['ponad cztery kilometry '] :- Dist < 5000.
+distance(Dist) == ['ponad pięć kilometrów '] :- Dist < 6000.
+distance(Dist) == ['ponad sześć kilometrów '] :- Dist < 7000.
+distance(Dist) == ['ponad siedem kilometrów '] :- Dist < 8000.
+distance(Dist) == ['ponad osiem kilometrów '] :- Dist < 9000.
+distance(Dist) == ['ponad dziewięć kilometrów '] :- Dist < 10000.
+distance(Dist) == ['ponad ', X, ' kilometrów '] :- D is Dist/1000, dist(D, X).
+
+%% resolve command main method
+%% if you are familar with Prolog you can input specific to the whole mechanism,
+%% by adding exception cases.
+flatten(X, Y) :- flatten(X, [], Y), !.
+flatten([], Acc, Acc).
+flatten([X|Y], Acc, Res):- 
+		flatten(Y, Acc, R), flatten(X, R, Res).
+flatten(X, Acc, [X|Acc]).
+
+resolve(X, Y) :- resolve_impl(X,Z), flatten(Z, Y).
+resolve_impl([],[]).
+resolve_impl([X|Rest], List) :- resolve_impl(Rest, Tail), ((X == L) -> append(L, Tail, List); List = Tail).