def Network_broadcast_played_card(self, data):
card = Card(data['card'][0], data['card'][1])
card.show()
self.cb.in_play[data['player']] = card
if data['lead']:
self.cb.lead_card = card
self.grb.play_card(data['player'])
def test_aceBig2MemoryIsBiggest2PairMustWin(self):
cards = self.__createCards(1,22, 4,22, 3,21, 2,21)
aceBig2Memory = SimpleFelix.AceBig2Memory(cards)
self.assertTrue(aceBig2Memory.isMustWin(Hand(self.__createCards(1,22, 4,22))))
aceBig2Memory.remember(Hand([Card(4,22)]))
self.assertTrue(aceBig2Memory.isMustWin(Hand(self.__createCards(1,22, 4,22))))
aceBig2Memory.remember(Hand([Card(4,21)]))
self.assertTrue(aceBig2Memory.isMustWin(Hand(self.__createCards(1,22, 4,22))))
def test_random_shuffle(g):
print('\n')
print('# in pickup :', len(g.pickup_deck))
print('# in player0 :', len(g.players[0].in_hand))
print('# in discard :', len(g.discard_pile))
print('\n\n')
print('Player 0 hand')
ascii_version_of_cards(g.players[0].in_hand)
print('\n\n..Changing game states, adding 4 and player 0 turn now..')
g.active_card = Card('4', 'Hearts', 'playing')
g.current_player = 0
print('..Now playing card 0 (for player 0)..')
g.players[0].execute_move(Move('Play', [0]))
print('\n\nDiscard pile (should be old card 0)')
ascii_version_of_cards(g.discard_pile.deck)
print('\n\n')
print('Player 0 hand now (should be down 1 card')
ascii_version_of_cards(g.players[0].in_hand)
print('\n\n')
print('Discard pile:')
for i in g.discard_pile.deck:
print(' ', i)
print('\n\n')
print('Pickup Deck:')
for i in g.pickup_deck.deck:
print(' ', i)
def prepare_hand(cards):
hand = []
for card in cards.split():
f, s = card[:-1], card[-1]
hand.append(Card(f, s))
return hand
def test_aceBig2MemoryWithAllAceBig2(self):
cards = self.__createCards(1,22, 3,22, 4,22, 2,22, 1,21, 3,21, 4,21, 2,21)
aceBig2Memory = SimpleFelix.AceBig2Memory(cards)
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(1,21)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(2,21)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(3,21)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(4,21)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(1,22)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(2,22)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(3,22)])))
self.assertTrue(aceBig2Memory.isMustWin(Hand([Card(4,22)])))
def lookupTracked(trackedCards, card):
# look into known cards
for p in trackedCards:
# find correspond card by area
if cardsOverlap(p, card):
if p.name != card.name and p.proba > card.proba:
# use prev values if prev probability was better
return Card(p.name, p.proba, card.proba, card.rect, card.img,
card.time)
break
return card
def Network_hand_dealt(self, data):
# Reverse hand order if player wants to sort it backwards.
if self.sort_hand_ascending:
data['hand'] = data['hand'][::-1]
self.cb.get_hand(data['hand'])
if data['trump_card']:
self.cb.trump_card = Card(data['trump_card'][0],
data['trump_card'][1])
self.cb.trump_card.show()
else:
self.cb.trump_card = None
self.grb.draw_new_hand(len(data['hand']))
def __hand(self, *arg):
if len(arg) % 2 != 0:
raise Exception('number of parameters must be even')
cards = []
i = 0
while i < len(arg):
suit = arg[i]
i += 1
num = arg[i]
i += 1
cards.append(Card(suit, num))
return Hand(cards)
def createCards(*arg):
if len(arg) % 2 != 0:
raise Exception('number of parameters must be even: %s')
cards = []
i = 0
while i < len(arg):
suit = arg[i]
i += 1
num = arg[i]
i += 1
cards.append(Card(suit, num))
return cards
def __init__(self, game):
Deck.__init__(self, game)
# Create deck of playing cards
for i in ['Hearts', 'Diamonds', 'Spades', 'Clubs']:
for j in [
'2', '3', '4', '5', '6', '7', '8', '9', '10', 'Jack',
'Queen', 'King', 'Ace'
]:
to_append = [Card(j, i, 'playing')] * 2
self.add_cards(to_append)
# Generate coloured UNO CARDS
for i in ['Red', 'Yellow', 'Green', 'Blue']:
for j in ['Skip', 'Reverse', "Draw 2"]:
to_append = [Card(j, i, 'uno')] * 2
self.add_cards(to_append)
# Generate Draw 4 cards
for i in range(4):
self.add_cards([Card('Draw 4', 'Black', 'uno')])
# Shuffle pickup deck
shuffle(self.deck)
def handle_play_card(self, player: str, card: list, lead=False):
self.send_all({
'action': "broadcast_played_card",
'player': player,
'card': card,
'lead': lead
})
self.gb.play_card(player,
Card(card[0], card[1]),
lead=True if len(self.gb.in_play) == 0 else False)
if (len(self.gb.in_play) != 4):
self.next_to_play_idx = (self.next_to_play_idx + 1) % 4
self.send_all({
'action': "broadcast_current_actor",
'actor': self.gb.players[self.next_to_play_idx],
'hand_num': self.hand_num
})
self.send_one(self.gb.players[self.next_to_play_idx], {
'action': "play_card",
'lead': False
})
else:
self.finish_trick()
for card in cards:
cardStrs.append('%s,%s ' % (card.suit, card.num))
cardStr = ','.join(cardStrs)
print 'cards = self.__createCards(%s)' % cardStr
nums = [3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 21, 22]
suits = [1, 2, 3, 4]
allCards = []
for suit in suits:
for num in nums:
allCards.append(Card(suit, num))
#printCardStr(cards)
i = 0
while 1:
i += 1
os.system('clear')
print i
cards = random.sample(allCards, 13)
print cards
felix = SimpleFelix()
def do_move(self, player, move):
# This method should always return a list
action, is_valid = self.is_valid_move(player, move)
cards = move.cards
if is_valid:
# If we are drawing, pop top cards off pickup and return them
# to let the player deal with putting them in their hand
if action == 'Draw':
cards = self.pickup_deck.give_top_cards(cards)
self.active_draw_card = None
self.no_to_draw = 0
self.players[player].picked_up = True
# Change key game states
elif action == 'Play':
num_cards = len(cards)
value = cards[0].value
# Want to check how many of the same cards we have played, and correct count
# but in case where its an empty deck we look out
if len(self.discard_pile.deck) > 0:
if value == self.discard_pile.deck[0].value:
self.same_active_cards += num_cards
else:
self.same_active_cards = num_cards
else:
self.same_active_cards = num_cards
self.discard_pile.add_cards(cards)
# If we play a 3 we don't want to change anything, it is a pass card
if value == '3':
pass
# Change draw card if playing draw card
elif value == 'Draw 2' or value == 'Draw 4':
self.active_draw_card = cards[0]
self.no_to_draw += int(value[-1:]) * num_cards
# For each skip card, skip one player
elif value == 'Skip' or value == 'Queen':
for i in cards:
if self.reverse is False:
self.current_player += 1
else:
self.current_player -= 1
# don't update active card for skip but we need to do it for queen
if value == 'Queen':
self.active_card = cards[0]
# For each reverse card, toggle self.reverse
elif value == 'Reverse':
# If we are down to 2 players, treat reverse as skip
if self.no_players == 2:
self.current_player += 1 # Only two players so don't care about direction
# Otherwise play it as normal
else:
for i in cards:
self.reverse = not self.reverse
# Change active card if playing card, include 7 and 2 in here (10 will go to burn)
elif cards[0].type == 'playing':
# if we are playing on the first turn, make current player the person who played the 4
if self.active_card == '':
self.current_player = player
self.active_card = cards[0]
# We want to return empty list as we successfully played the cards
cards = []
elif action == 'Burn':
self.discard_pile.add_cards(cards)
self.discard_pile.burn()
self.active_card = Card(
'4', 'PHANTOM',
'playing') # Anything can be played on this
self.same_active_cards = 0
self.active_draw_card = None
self.no_to_draw = 0
# set ourselves as current, then step forward or back
# so when we step again later it will still be us
self.current_player = player # need this for out of turn burns
if self.reverse is False:
self.current_player -= 1
else:
self.current_player += 1
# As we burned, return empty list
cards = []
elif action == 'Pickup':
cards = self.discard_pile.pick_up()
self.active_card = Card(
'4', 'PHANTOM',
'playing') # Set a phantom playing card to play on
self.same_active_cards = 0
self.players[player].picked_up = True
# Change current player and current turn
self.current_turn += 1
if self.reverse is False:
self.current_player = (self.current_player +
1) % self.no_players
else:
self.current_player = (self.current_player -
1) % self.no_players
else:
# If we unsuccessfully tried to draw, return nothing
if action == 'Draw':
cards = []
return is_valid, cards
def reshuffle(self):
self.ended = False
self._deck = Card.getRandomDeck()
if (self._rounds == None):
self._rounds = []
self.nextRound()
def desk_card_info(request):
from common.card import Card
if not request.GET:
# 说明是第一次进
return render(request, 'desk_card_info.html',
dict(form=DeskQueryForm()))
form = DeskQueryForm(request.GET)
if not form.is_valid():
return render(request, 'desk_card_info.html', dict(form=form))
dst_desk = load_desk(form.cleaned_data['desk_id'])
if not dst_desk:
return render(request, 'desk_card_info.html',
dict(form=form, result='no such desk'))
if dst_desk.status != config.GAME_STATE_INGAME:
return render(request, 'desk_card_info.html',
dict(form=form, result='game not begin'))
share_cards = [Card(num).human_str for num in dst_desk.share_cards]
_list = []
if dst_desk.send_card_uin:
is_send_card = True
extend_card = Card(dst_desk.extend_card).human_str
current_uin = dst_desk.send_card_uin
else:
is_send_card = False
current_player = dst_desk.player_group.get_player_by_uin(
dst_desk.recv_card_uin)
extend_card = current_player.card_group.card_list[-1].human_str
current_uin = dst_desk.recv_card_uin
for player in dst_desk.player_group.active_players:
_list.append(
dict(
belong=u'%s-%s' % (player.user.nick, player.uin),
cards=[
p_card.human_str for p_card in player.card_group.card_list
],
out_cards=[
p_card.human_str
for p_card in player.card_group.out_card_list
],
dis_cards=[
p_card.human_str
for p_card in player.card_group.discard_list
],
op_list=player.op_list,
op_type=player.op_type if not player.need_wait else None,
))
return render(
request, 'desk_card_info.html',
dict(
form=form,
card_list=_list,
share_cards_list=share_cards,
is_send_card=is_send_card,
extend_card=extend_card,
current_uin=current_uin,
))
def _recognizeFrame(self, frame):
# resize image, then use for getting blob
frameSized = cv2.resize(frame, (300, 300))
# construct a blob from the image
imageBlob = cv2.dnn.blobFromImage(frameSized,
1.0, (300, 300),
(104.0, 177.0, 123.0),
swapRB=False,
crop=False)
# apply OpenCV's deep learning-based face detector to localize
# faces in the input image
self.detector.setInput(imageBlob)
detections = self.detector.forward()
frameCards = []
frameH, frameW = frame.shape[:2]
# loop over the detections
for i in range(0, detections.shape[2]):
# extract the confidence (i.e., probability) associated with
# the prediction
confidence = detections[0, 0, i, 2]
# filter out weak detections
if confidence > self.confidence:
# compute the (x, y)-coordinates of the bounding box for
# the face
box = detections[0, 0, i, 3:7] * np.array(
[frameW, frameH, frameW, frameH])
startX, startY, endX, endY = box.astype("int")
b = 40
sY = startY - b if startY - b > 0 else 0
eY = endY + b if endY + b <= frameH else frameH
sX = startX - b if startX - b > 0 else 0
eX = endX + b if endX + b <= frameW else frameW
cardImg = frame[sY:eY, sX:eX]
card = Card("", 0, 0, (startX, startY, endX, endY), cardImg,
datetime.now())
if self.getActionLevel() == 2:
# extract the face ROI
face = frame[startY:endY, startX:endX]
fH, fW = face.shape[:2]
# ensure the face width and height are sufficiently large
if fW < 20 or fH < 20:
continue
# construct a blob for the face ROI, then pass the blob
# through our face embedding model to obtain the 128-d
# quantification of the face
faceBlob = cv2.dnn.blobFromImage(face,
1.0 / 255, (96, 96),
(0, 0, 0),
swapRB=True,
crop=False)
self.embedder.setInput(faceBlob)
vec = self.embedder.forward()
# perform classification to recognize the face
preds = self.recognizer.predict_proba(vec)[0]
j = np.argmax(preds)
proba = preds[j]
name = self.lencoder.classes_[j]
card = Card(name, proba, proba,
(startX, startY, endX, endY), cardImg,
datetime.now())
card = lookupTracked(self.trackedCards, card)
frameCards.append(card)
return frameCards
def test_power_cards(g):
print('\n\n..Changing game states, adding 4 and player 0 turn now..')
g.active_card = Card('4', 'Hearts', 'playing')
g.current_player = 0
print('\n\n..Initialise player 0s hand')
g.players[0].in_hand = [
# Play 5
Card('5', 'Hearts', 'playing'),
# Play 7 on 7
Card('7', 'Hearts', 'playing'),
Card('7', 'Hearts', 'playing'),
# Burn with four 6
Card('6', 'Hearts', 'playing'),
Card('6', 'Hearts', 'playing'),
Card('6', 'Hearts', 'playing'),
Card('6', 'Hearts', 'playing'),
# Play 4
Card('4', 'Hearts', 'playing'),
# Skip and reverse
Card('Skip', 'Red', 'uno'),
Card('Reverse', 'Red', 'uno'),
# Stack Draw 2
Card('Draw 2', 'Red', 'uno'),
Card('3', 'Hearts', 'playing'),
Card('Draw 2', 'Red', 'uno'),
# Pickup 4
]
ascii_version_of_cards(g.players[0].in_hand)
print('\n\n..Playing 5, [7, 7], [6, 6, 6]')
g.players[0].execute_move(Move('Play', [0]))
g.current_player = 0
g.players[0].execute_move(Move('Play', [0, 1]))
g.current_player = 0
g.players[0].execute_move(Move('Play', [0, 1, 2]))
print('\n Player 0:')
ascii_version_of_cards(g.players[0].in_hand)
print('Discard pile:')
ascii_version_of_cards(g.discard_pile.deck)
print('\n\n..Playing 6 (out of turn), 4')
for i in range(2):
g.players[0].execute_move(Move('Play', [0]))
g.current_player = 0
print('\n Player 0:')
ascii_version_of_cards(g.players[0].in_hand)
print('Discard pile:')
ascii_version_of_cards(g.discard_pile.deck)
print('Burned pile:')
ascii_version_of_cards(g.burned_pile.deck)
print('\n\n..Playing Skip and Reverse')
for i in range(2):
print('Playing:', g.players[0].in_hand[0].value, end=' == ')
g.players[0].execute_move(Move('Play', [0]))
print('Current player:', g.current_player)
g.current_player = 0
print('\n Player 0:')
ascii_version_of_cards(g.players[0].in_hand)
print('Discard pile:')
ascii_version_of_cards(g.discard_pile.deck)
print('Burned pile:')
ascii_version_of_cards(g.burned_pile.deck)
print('\n\n..Playing Draw 2, 3, Draw 2')
for i in range(3):
g.players[0].execute_move(Move('Play', [0]))
g.current_player = 0
print('\n Player 0:')
ascii_version_of_cards(g.players[0].in_hand)
print('Discard pile:')
ascii_version_of_cards(g.discard_pile.deck)
print('Burned pile:')
ascii_version_of_cards(g.burned_pile.deck)
print('\n\n..Drawing 4 cards')
g.players[0].execute_move(Move('Draw', 4))
print('\n Player 0:')
print('In hand')
ascii_version_of_cards(g.players[0].in_hand)
print('Face down')
ascii_version_of_cards(g.players[0].face_down)
print('Discard pile:')
ascii_version_of_cards(g.discard_pile.deck)
print('Burned pile:')
ascii_version_of_cards(g.burned_pile.deck)