def test_init_round(self):
table = Table()
round_number = 4
count_of_honba_sticks = 2
count_of_riichi_sticks = 3
dora_indicator = 126
dealer = 3
scores = [250, 250, 250, 250]
table.init_round(round_number, count_of_honba_sticks, count_of_riichi_sticks, dora_indicator, dealer, scores)
self.assertEqual(table.round_number, round_number)
self.assertEqual(table.count_of_honba_sticks, count_of_honba_sticks)
self.assertEqual(table.count_of_riichi_sticks, count_of_riichi_sticks)
self.assertEqual(table.dora_indicators[0], dora_indicator)
self.assertEqual(table.get_player(dealer).is_dealer, True)
self.assertEqual(table.get_player(dealer).scores, 25000)
dealer = 2
table.get_main_player().in_tempai = True
table.get_main_player().in_riichi = True
table.init_round(round_number, count_of_honba_sticks, count_of_riichi_sticks, dora_indicator, dealer, scores)
# test that we reinit round properly
self.assertEqual(table.get_player(3).is_dealer, False)
self.assertEqual(table.get_main_player().in_tempai, False)
self.assertEqual(table.get_main_player().in_riichi, False)
self.assertEqual(table.get_player(dealer).is_dealer, True)
def test_is_dora(self):
table = Table()
table.init_round(0, 0, 0, 0, 0, [])
table.dora_indicators = [self._string_to_136_tile(sou='1')]
self.assertTrue(table.is_dora(self._string_to_136_tile(sou='2')))
table.dora_indicators = [self._string_to_136_tile(sou='9')]
self.assertTrue(table.is_dora(self._string_to_136_tile(sou='1')))
table.dora_indicators = [self._string_to_136_tile(pin='9')]
self.assertTrue(table.is_dora(self._string_to_136_tile(pin='1')))
table.dora_indicators = [self._string_to_136_tile(man='9')]
self.assertTrue(table.is_dora(self._string_to_136_tile(man='1')))
table.dora_indicators = [self._string_to_136_tile(man='5')]
self.assertTrue(table.is_dora(self._string_to_136_tile(man='6')))
table.dora_indicators = [self._string_to_136_tile(honors='1')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='2')))
table.dora_indicators = [self._string_to_136_tile(honors='2')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='3')))
table.dora_indicators = [self._string_to_136_tile(honors='3')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='4')))
table.dora_indicators = [self._string_to_136_tile(honors='4')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='1')))
table.dora_indicators = [self._string_to_136_tile(honors='5')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='6')))
table.dora_indicators = [self._string_to_136_tile(honors='6')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='7')))
table.dora_indicators = [self._string_to_136_tile(honors='7')]
self.assertTrue(table.is_dora(self._string_to_136_tile(honors='5')))
table.dora_indicators = [self._string_to_136_tile(pin='1')]
self.assertFalse(table.is_dora(self._string_to_136_tile(sou='2')))
settings.FIVE_REDS = True
# red five man
self.assertTrue(table.is_dora(FIVE_RED_MAN))
# red five pin
self.assertTrue(table.is_dora(FIVE_RED_PIN))
# red five sou
self.assertTrue(table.is_dora(FIVE_RED_SOU))
settings.FIVE_REDS = False
def test_set_scores(self):
table = Table()
table.init_round(0, 0, 0, 0, 0, [])
scores = [230, 110, 55, 405]
table.set_players_scores(scores)
self.assertEqual(table.get_player(0).scores, 23000)
self.assertEqual(table.get_player(1).scores, 11000)
self.assertEqual(table.get_player(2).scores, 5500)
self.assertEqual(table.get_player(3).scores, 40500)
def test_set_scores_and_uma(self):
table = Table()
table.init_round(0, 0, 0, 0, 0, [])
scores = [230, 110, 55, 405]
uma = [-17, 3, 48, -34]
table.set_players_scores(scores, uma)
self.assertEqual(table.get_player(0).scores, 23000)
self.assertEqual(table.get_player(0).uma, -17)
self.assertEqual(table.get_player(1).scores, 11000)
self.assertEqual(table.get_player(1).uma, 3)
self.assertEqual(table.get_player(2).scores, 5500)
self.assertEqual(table.get_player(2).uma, 48)
self.assertEqual(table.get_player(3).scores, 40500)
self.assertEqual(table.get_player(3).uma, -34)
def test_set_names_and_ranks(self):
table = Table()
table.init_round(0, 0, 0, 0, 0, [])
values = [
{'name': 'NoName', 'rank': u'新人'},
{'name': 'o2o2', 'rank': u'3級'},
{'name': 'shimmmmm', 'rank': u'三段'},
{'name': u'川海老', 'rank': u'9級'}
]
table.set_players_names_and_ranks(values)
self.assertEqual(table.get_player(0).name, 'NoName')
self.assertEqual(table.get_player(0).rank, u'新人')
self.assertEqual(table.get_player(3).name, u'川海老')
self.assertEqual(table.get_player(3).rank, u'9級')
def test_round_wind(self):
table = Table()
table.init_round(0, 0, 0, 0, 0, [])
self.assertEqual(table.round_wind, EAST)
table.init_round(3, 0, 0, 0, 0, [])
self.assertEqual(table.round_wind, EAST)
table.init_round(7, 0, 0, 0, 0, [])
self.assertEqual(table.round_wind, SOUTH)
table.init_round(11, 0, 0, 0, 0, [])
self.assertEqual(table.round_wind, WEST)
table.init_round(12, 0, 0, 0, 0, [])
self.assertEqual(table.round_wind, NORTH)
def test_set_scores_and_recalculate_player_position(self):
table = Table()
table.init_round(0, 0, 0, 0, 0, [])
scores = [230, 110, 55, 405]
table.set_players_scores(scores)
self.assertEqual(table.get_player(0).position, 2)
self.assertEqual(table.get_player(1).position, 3)
self.assertEqual(table.get_player(2).position, 4)
self.assertEqual(table.get_player(3).position, 1)
scores = [110, 110, 405, 405]
table.set_players_scores(scores)
self.assertEqual(table.get_player(0).position, 3)
self.assertEqual(table.get_player(1).position, 4)
self.assertEqual(table.get_player(2).position, 1)
self.assertEqual(table.get_player(3).position, 2)
def test_find_dealer_tile_to_discard(self):
dealer = 2
dora = self._string_to_136_tile(honors='3')
table = Table()
table.init_round(0, 0, 0, dora, dealer, [])
tiles = self._string_to_136_array(sou='2234678', pin='34', man='45789')
table.player.init_hand(tiles)
table.add_discarded_tile(1, self._string_to_136_tile(man='4'), False)
table.add_discarded_tile(1, self._string_to_136_tile(man='5'), False)
table.add_discarded_tile(2, self._string_to_136_tile(man='8'), False)
table.add_discarded_tile(2, self._string_to_136_tile(man='9'), False)
table.add_called_riichi(1)
table.add_called_riichi(2)
# for this test we don't need temporary_safe_tiles
table.get_player(1).temporary_safe_tiles = []
table.get_player(2).temporary_safe_tiles = []
result = table.player.discard_tile()
# second player is a dealer, let's fold against him
self.assertEqual(self._to_string([result]), '9m')
tiles = self._string_to_136_array(sou='234567',
pin='348',
man='234',
honors='23')
table.player.init_hand(tiles)
result = table.player.discard_tile()
# there is no safe tiles against dealer, so let's fold against other players
self.assertEqual(table.player.ai.in_defence, True)
self.assertEqual(self._to_string([result]), '4m')
def reproduce(self, dry_run=False):
draw_tags = ['T', 'U', 'V', 'W']
discard_tags = ['D', 'E', 'F', 'G']
player_draw = draw_tags[self.player_position]
player_draw_regex = re.compile('^<[{}]+\d*'.format(
''.join(player_draw)))
discard_regex = re.compile('^<[{}]+\d*'.format(''.join(discard_tags)))
table = Table()
for tag in self.round_content:
if dry_run:
print(tag)
if not dry_run and tag == self.stop_tag:
break
if 'INIT' in tag:
values = self.decoder.parse_initial_values(tag)
shifted_scores = []
for x in range(0, 4):
shifted_scores.append(
values['scores'][self._normalize_position(
x, self.player_position)])
table.init_round(
values['round_number'],
values['count_of_honba_sticks'],
values['count_of_riichi_sticks'],
values['dora_indicator'],
self._normalize_position(self.player_position,
values['dealer']),
shifted_scores,
)
hands = [
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai0').split(',')
],
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai1').split(',')
],
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai2').split(',')
],
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai3').split(',')
],
]
table.player.init_hand(hands[self.player_position])
if player_draw_regex.match(tag) and 'UN' not in tag:
tile = self.decoder.parse_tile(tag)
table.player.draw_tile(tile)
if discard_regex.match(tag) and 'DORA' not in tag:
tile = self.decoder.parse_tile(tag)
player_sign = tag.upper()[1]
player_seat = self._normalize_position(
self.player_position, discard_tags.index(player_sign))
if player_seat == 0:
table.player.discard_tile(
DiscardOption(table.player, tile // 4, 0, [], 0))
else:
table.add_discarded_tile(player_seat, tile, False)
if '<N who=' in tag:
meld = self.decoder.parse_meld(tag)
player_seat = self._normalize_position(self.player_position,
meld.who)
table.add_called_meld(player_seat, meld)
if player_seat == 0:
# we had to delete called tile from hand
# to have correct tiles count in the hand
if meld.type != Meld.KAN and meld.type != Meld.CHANKAN:
table.player.draw_tile(meld.called_tile)
if '<REACH' in tag and 'step="1"' in tag:
who_called_riichi = self._normalize_position(
self.player_position,
self.decoder.parse_who_called_riichi(tag))
table.add_called_riichi(who_called_riichi)
if not dry_run:
tile = self.decoder.parse_tile(self.stop_tag)
print('Hand: {}'.format(table.player.format_hand_for_print(tile)))
# to rebuild all caches
table.player.draw_tile(tile)
tile = table.player.discard_tile()
# real run, you can stop debugger here
table.player.draw_tile(tile)
tile = table.player.discard_tile()
print('Discard: {}'.format(
TilesConverter.to_one_line_string([tile])))
def reproduce(self, dry_run=False):
draw_tags = ['T', 'U', 'V', 'W']
discard_tags = ['D', 'E', 'F', 'G']
player_draw = draw_tags[self.player_position]
player_draw_regex = re.compile('^<[{}]+\d*'.format(
''.join(player_draw)))
draw_regex = re.compile('^<[{}]+\d*'.format(''.join(draw_tags)))
discard_regex = re.compile('^<[{}]+\d*'.format(''.join(discard_tags)))
table = Table()
previous_tag = ""
score = 1
is_valid_sample = False
for n, tag in enumerate(self.round_content):
if dry_run:
print(tag)
if not dry_run and tag == self.stop_tag:
break
if 'INIT' in tag:
values = self.decoder.parse_initial_values(tag)
shifted_scores = []
for x in range(0, 4):
shifted_scores.append(
values['scores'][self._normalize_position(
x, self.player_position)])
table.init_round(
values['round_number'],
values['count_of_honba_sticks'],
values['count_of_riichi_sticks'],
values['dora_indicator'],
self._normalize_position(self.player_position,
values['dealer']),
shifted_scores,
)
hands = [
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai0').split(',')
],
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai1').split(',')
],
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai2').split(',')
],
[
int(x) for x in self.decoder.get_attribute_content(
tag, 'hai3').split(',')
],
]
# DEL: we can't only initialize the main player, we must initialize
# other players as well.
#table.player.init_hand(hands[self.player_position])
# ADD: initialize all players on the table
table.players[0].init_hand(hands[self.player_position])
table.players[1].init_hand(hands[(self.player_position + 1) %
4])
table.players[2].init_hand(hands[(self.player_position + 2) %
4])
table.players[3].init_hand(hands[(self.player_position + 3) %
4])
# ADD: when restart a new game, we need to reinitialize the config
self.extract_features.__init__()
# We must deal with ALL players.
#if player_draw_regex.match(tag) and 'UN' not in tag:
if draw_regex.match(tag) and 'UN' not in tag:
tile = self.decoder.parse_tile(tag)
# CHG: we must deal with ALL players
#table.player.draw_tile(tile)
if "T" in tag:
table.players[0].draw_tile(tile)
elif "U" in tag:
table.players[1].draw_tile(tile)
elif "V" in tag:
table.players[2].draw_tile(tile)
elif "W" in tag:
table.players[3].draw_tile(tile)
#print("After draw `W`:", table.players[3].tiles)
if discard_regex.match(tag) and 'DORA' not in tag:
tile = self.decoder.parse_tile(tag)
player_sign = tag.upper()[1]
# TODO: I don't know why the author wrote the code as below, the
# player_seat won't work if we use self._normalize_position. This
# might be a tricky part, and we need to review it later.
#player_seat = self._normalize_position(self.player_position, discard_tags.index(player_sign))
# Temporally solution to modify the player_seat
player_seat = (discard_tags.index(player_sign) +
self.player_position) % 4
#print("updated player seat:",player_seat)
if player_seat == 0:
table.players[player_seat].discard_tile(
DiscardOption(table.players[player_seat], tile // 4, 0,
[], 0))
else:
# ADD: we must take care of ALL players
tile_to_discard = tile
is_tsumogiri = tile_to_discard == table.players[
player_seat].last_draw
# it is important to use table method,
# to recalculate revealed tiles and etc.
table.add_discarded_tile(player_seat, tile_to_discard,
is_tsumogiri)
#print("seat:",player_seat)
#print("tiles:", TilesConverter.to_one_line_string(table.players[player_seat].tiles), " discard?:", TilesConverter.to_one_line_string([tile_to_discard]))
table.players[player_seat].tiles.remove(tile_to_discard)
# DEL
#table.add_discarded_tile(player_seat, tile, False)
if '<N who=' in tag:
meld = self.decoder.parse_meld(tag)
#player_seat = self._normalize_position(self.player_position, meld.who)
# Again, we change the player_seat here
player_seat = (meld.who + self.player_position) % 4
table.add_called_meld(player_seat, meld)
#if player_seat == 0:
# CHG: we need to handle ALL players here
if True:
# we had to delete called tile from hand
# to have correct tiles count in the hand
if meld.type != Meld.KAN and meld.type != Meld.CHANKAN:
table.players[player_seat].draw_tile(meld.called_tile)
if '<REACH' in tag and 'step="1"' in tag:
who_called_riichi = self._normalize_position(
self.player_position,
self.decoder.parse_who_called_riichi(tag))
table.add_called_riichi(who_called_riichi)
# This part is to extract the features that will be used to train
# our model.
try:
next_tag = self.round_content[n + 1]
except IndexError:
next_tag = ""
if '<AGARI' in next_tag:
who_regex = re.compile("who=\"\d+\"")
fromWho_regex = re.compile("fromWho=\"\d+\"")
sc_regex = "sc=\"[+-]?\d+,[+-]?\d+,[+-]?\d+,[+-]?\d+,[+-]?\d+,[+-]?\d+,[+-]?\d+,[+-]?\d+\""
score_regex = re.compile(sc_regex)
who = int(
who_regex.search(next_tag).group(0).replace(
'"', '').split("=")[1])
fromWho = int(
fromWho_regex.search(next_tag).group(0).replace(
'"', '').split("=")[1])
scores = [
float(s)
for s in score_regex.search(next_tag).group(0).replace(
'"', '').split("=")[1].split(",")
]
score = scores[fromWho * 2 + 1]
player_seat, features = self.execute_extraction(tag, table)
# # tsumo is not a valid sample for our training.
# if (who!=fromWho): # not tsumo (lose the score to winner, score<0)
# if (features is not None) and (player_seat is not None) and (score<0):
# # The first element before ";" is table_info, therefore player_info starts
# # from index 1, and we put who+1 here.
# self.feature_to_logger(features, who+1, score)
# score = 1
# tsumo is a valid sample for our training
if (who == fromWho): # tsumo (win the score, score>0)
if (features
is not None) and (player_seat
is not None) and (score > 0):
self.feature_to_logger(features, who + 1, score)
score = -1
else:
player_seat, features = self.execute_extraction(tag, table)
if not dry_run:
tile = self.decoder.parse_tile(self.stop_tag)
print('Hand: {}'.format(table.player.format_hand_for_print(tile)))
# to rebuild all caches
table.player.draw_tile(tile)
tile = table.player.discard_tile()
# real run, you can stop debugger here
table.player.draw_tile(tile)
tile = table.player.discard_tile()
print('Discard: {}'.format(
TilesConverter.to_one_line_string([tile])))
def reproduce(self, dry_run=False):
draw_tags = ['T', 'U', 'V', 'W']
discard_tags = ['D', 'E', 'F', 'G']
player_draw = draw_tags[self.player_position]
player_draw_regex = re.compile('^<[{}]+\d*'.format(''.join(player_draw)))
draw_regex = re.compile('^<[{}]+\d*'.format(''.join(draw_tags)))
discard_regex = re.compile('^<[{}]+\d*'.format(''.join(discard_tags)))
table = Table()
# previous_tag = None
for tag in self.round_content:
if dry_run:
print(tag)
if not dry_run and tag == self.stop_tag:
break
if 'INIT' in tag:
values = self.decoder.parse_initial_values(tag)
shifted_scores = []
for x in range(0, 4):
shifted_scores.append(values['scores'][self._normalize_position(x, self.player_position)])
table.init_round(
values['round_number'],
values['count_of_honba_sticks'],
values['count_of_riichi_sticks'],
values['dora_indicator'],
self._normalize_position(self.player_position, values['dealer']),
shifted_scores,
)
hands = [
[int(x) for x in self.decoder.get_attribute_content(tag, 'hai0').split(',')],
[int(x) for x in self.decoder.get_attribute_content(tag, 'hai1').split(',')],
[int(x) for x in self.decoder.get_attribute_content(tag, 'hai2').split(',')],
[int(x) for x in self.decoder.get_attribute_content(tag, 'hai3').split(',')],
]
# DEL: we can't only initialize the main player, we must initialize
# other players as well.
#table.player.init_hand(hands[self.player_position])
# ADD: initialize all players on the table
table.players[0].init_hand(hands[self.player_position])
table.players[1].init_hand(hands[(self.player_position+1)%4])
table.players[2].init_hand(hands[(self.player_position+2)%4])
table.players[3].init_hand(hands[(self.player_position+3)%4])
# ADD: when restart a new game, we need to reinitialize the config
self.extract_features.__init__()
# We must deal with ALL players.
#if player_draw_regex.match(tag) and 'UN' not in tag:
if draw_regex.match(tag) and 'UN' not in tag:
tile = self.decoder.parse_tile(tag)
# CHG: we must deal with ALL players
#table.player.draw_tile(tile)
if "T" in tag:
table.players[0].draw_tile(tile)
elif "U" in tag:
table.players[1].draw_tile(tile)
elif "V" in tag:
table.players[2].draw_tile(tile)
elif "W" in tag:
table.players[3].draw_tile(tile)
#print("After draw `W`:", table.players[3].tiles)
if discard_regex.match(tag) and 'DORA' not in tag:
tile = self.decoder.parse_tile(tag)
player_sign = tag.upper()[1]
# TODO: I don't know why the author wrote the code as below, the
# player_seat won't work if we use self._normalize_position. This
# might be a tricky part, and we need to review it later.
#player_seat = self._normalize_position(self.player_position, discard_tags.index(player_sign))
# Temporally solution to modify the player_seat
player_seat = (discard_tags.index(player_sign) + self.player_position)%4
#print("updated player seat:",player_seat)
if player_seat == 0:
table.players[player_seat].discard_tile(DiscardOption(table.players[player_seat], tile // 4, 0, [], 0))
else:
# ADD: we must take care of ALL players
tile_to_discard = tile
is_tsumogiri = tile_to_discard == table.players[player_seat].last_draw
# it is important to use table method,
# to recalculate revealed tiles and etc.
table.add_discarded_tile(player_seat, tile_to_discard, is_tsumogiri)
#print("seat:",player_seat)
#print("tiles:", TilesConverter.to_one_line_string(table.players[player_seat].tiles), " discard?:", TilesConverter.to_one_line_string([tile_to_discard]))
table.players[player_seat].tiles.remove(tile_to_discard)
# DEL
#table.add_discarded_tile(player_seat, tile, False)
if '<N who=' in tag:
meld = self.decoder.parse_meld(tag)
#player_seat = self._normalize_position(self.player_position, meld.who)
# Again, we change the player_seat here
player_seat = (meld.who + self.player_position) % 4
table.add_called_meld(player_seat, meld)
#if player_seat == 0:
# CHG: we need to handle ALL players here
if True:
# we had to delete called tile from hand
# to have correct tiles count in the hand
if meld.type != Meld.KAN and meld.type != Meld.CHANKAN:
table.players[player_seat].draw_tile(meld.called_tile)
if '<REACH' in tag and 'step="1"' in tag:
who_called_riichi = self._normalize_position(self.player_position,
self.decoder.parse_who_called_riichi(tag))
table.add_called_riichi(who_called_riichi)
# This part is to extract the features that will be used to train
# our model.
# if '<AGARI' in tag:
# print(previous_tag)
# print(tag)
# print("~~~~~~~~~\n")
if '<D' in tag:
#features = self.extract_features.get_is_waiting_features(table)
features = self.extract_features.get_waiting_tiles_features(table)
if features is not None:
features_list = features.split(";")
assert len(features_list)==6, "<D> Features format incorrect!"
table_info = features_list[0]
player_info = features_list[1]
logger2.info(table_info + ";" + player_info)
if '<E' in tag:
#features = self.extract_features.get_is_waiting_features(table)
features = self.extract_features.get_waiting_tiles_features(table)
if features is not None:
features_list = features.split(";")
assert len(features_list)==6, "<E> Features format incorrect!"
table_info = features_list[0]
player_info = features_list[2]
logger2.info(table_info + ";" + player_info)
if '<F' in tag:
#features = self.extract_features.get_is_waiting_features(table)
features = self.extract_features.get_waiting_tiles_features(table)
if features is not None:
features_list = features.split(";")
assert len(features_list)==6, "<F> Features format incorrect!"
table_info = features_list[0]
player_info = features_list[3]
logger2.info(table_info + ";" + player_info)
if '<G' in tag:
#features = self.extract_features.get_is_waiting_features(table)
features = self.extract_features.get_waiting_tiles_features(table)
if features is not None:
features_list = features.split(";")
assert len(features_list)==6, "<G> Features format incorrect!"
table_info = features_list[0]
player_info = features_list[4]
logger2.info(table_info + ";" + player_info)
# previous_tag = tag
if not dry_run:
tile = self.decoder.parse_tile(self.stop_tag)
print('Hand: {}'.format(table.player.format_hand_for_print(tile)))
# to rebuild all caches
table.player.draw_tile(tile)
tile = table.player.discard_tile()
# real run, you can stop debugger here
table.player.draw_tile(tile)
tile = table.player.discard_tile()
print('Discard: {}'.format(TilesConverter.to_one_line_string([tile])))