def initGame(mastersound):
'''
Initialize a new model of the game:
Starts the intro song
returns a tuple
a deck
a list of minidecks
a pile
a new playscreen
'''
deck = Deck()
pile = Pile()
minidecks = []
mastersound.stop()
mastersound.intro()
#Initialize a list of slots
for i in range(NUMBEROFMINID):
minidecks.append(Minideck(deck.draw_cards(CARDSINMINIDECK)))
pile.put(deck.draw_card())
return deck, minidecks, pile, PlayScreen()
def dealCards(self): theDeck = Deck() # DEALING CARDS counter = 0 for player in self.players: player.cardsInHand = [] player.playersHand = [] for i in xrange(player.cardsLeft): player.recieveCard(theDeck.dealCard()) counter += 1 # INITING TABLE VARIABLES cardsOnTable = [] self.numCardsOnTable = 0 for player in self.players: for cardFromPlayer in player.playersHand: self.numCardsOnTable += cardFromPlayer[1] existOnTable = False for cardOnTable in cardsOnTable: if cardFromPlayer[0] == cardOnTable[0]: cardOnTable[1] += cardFromPlayer[1] existOnTable = True if not existOnTable: cardsOnTable.append(cardFromPlayer) self.cardsOnTable = cardsOnTable
def computeHS2( data ) :
[pocket_assignment, board, EV_or_HS] = data
if len(board) != 5 :
print "HS2 only works on board lengths of 5"
assert False
results = {}
d = Deck()
d.remove( board )
valid = all([d.remove(pa) for pa in pocket_assignment])
if valid :
r = pe.poker_eval( game=globles.GAME, \
pockets=pocket_assignment, \
board=board )
if EV_or_HS == 'EV' :
for pocket,evl in zip( pocket_assignment, r["eval"] ) :
results[canonicalize(pocket)] = evl["ev"] / float(globles.EV_RANGE)
else :
for i, pocket in enumerate(pocket_assignment) :
wins = r["eval"][i]["winhi"]
ties = r["eval"][i]["tiehi"]
losses = r["eval"][i]["losehi"]
hs = (wins + float(ties)/2) / (wins + ties + losses)
hs2 = hs*hs;
#if canonicalize(pocket) == '8d8c' :
#print data, hs2
results[canonicalize(pocket)] = hs2
else :
pass
#raise Exception("Invalid Assignment")
return results
def computeEHS2( data ) :
[pocket_assignment, board, EV_or_HS] = data
d = Deck()
d.remove( board )
valid = all([d.remove(pa) for pa in pocket_assignment])
results = {}
if valid :
canonical_pockets = [canonicalize(p) for p in pocket_assignment]
num_unknown_board = 5-len(board)
HS2sums = {}
counts = {}
for pocket in canonical_pockets :
HS2sums[pocket] = 0
counts[pocket] = 0
for board_suffix in combinations( d.cards, num_unknown_board ) :
full_board = board + makeHuman(board_suffix)
#print makeHuman(pocket), full_board
data = [ pocket_assignment, full_board, EV_or_HS]
HS2s = computeHS2(data)
for pocket in canonical_pockets :
HS2sums[pocket] += HS2s[pocket]
counts[pocket] += 1
for pocket in canonical_pockets :
results[pocket] = HS2sums[pocket] / float(counts[pocket])
return results
def mapReduceComputeEHS2( pool, \
board, \
num_opponents = 1 ) :
known_pockets = [['__','__']]
dek = Deck()
dek.shuffle()
dek.remove( board )
remaining_cards = dek.cards
possible_pockets = combinations( remaining_cards, globles.POCKET_SIZE )
possible_pocket_assignments = combinations( possible_pockets, \
num_opponents )
#map
a = time()
all_pockets_plus_globals = wrapWithGlobals( possible_pocket_assignments, \
known_pockets, \
remaining_cards, \
board, \
'HS')
mapped = pool.map( computeEHS2, all_pockets_plus_globals )
#mapped: [{pocket1: HS2, __: HS2},{pocket2: HS2, __:HS2},...]
d_pocket_HS2 = {}
for pocket_hs in mapped :
for pocket in pocket_hs :
if pocket != canonicalize(['__','__']) :
d_pocket_HS2[pocket] = pocket_hs[pocket]
#print d_pocket_HS2
return d_pocket_HS2
def getReward(self, state, action, transitionState):
isDone, isFirst, isDoubleDown, hasAce, hardCount, dealerSoftCount = transitionState
multiplier = 2 if isDoubleDown else 1
if hardCount > 21:
return -2 * multiplier
softCount = hardCount + 10 if hasAce and hardCount <= 11 else hardCount
if isDone:
if isFirst and softCount == 21:
return multiplier
# Simulate the dealer's actions
dealerAgent = DealerAgent()
dealerCardValue = dealerSoftCount - 1 if dealerSoftCount != 11 else 0
card = Card(0, dealerCardValue)
dealerHand = Hand(1)
dealerHand.addCard(card)
deck = Deck(1, 4, 13)
dealerHand.addCard(deck.take())
while dealerAgent.getNextAction(None, dealerHand) == Actions.HIT:
dealerHand.addCard(deck.take())
return (
multiplier
if softCount > dealerHand.getSoftCount()
else (0 if softCount == dealerHand.getSoftCount() else -multiplier)
)
else:
return 0
def launch(self, proc_number):
"""Runs a simulation
:return: double: the ratio of successful hands over total hands
"""
logging.info(process.current_process().name + ': Plot data will be collected every {} runs'.
format(self.collect_frequency))
success_count = 0
deck = Deck()
for sim_nb in range(self.number_simulations):
deck.initialise()
card_rules=CardRules(deck)
card_rules.set_target(self.target_rank)
cards_in_hand = self.get_starting_hand(deck, self.starting_cards)
for v in range(self.number_of_draws):
retained_cards = card_rules.apply_rules(cards_in_hand)
#draw additional cards from deck to make a full hand
dealer_cards = [deck.get_card() for c in
range(self.MAX_CARDS_IN_HAND - len(retained_cards))]
cards_in_hand=retained_cards+dealer_cards
# at the end of the last draw we check the final hand to see if we hit the target
is_success=card_rules.check_success(cards_in_hand)
if is_success:
success_count += 1
if self.is_plot and sim_nb % self.collect_frequency == 0 and sim_nb > 0:
self._intermediate_results.append((success_count) / sim_nb)
self._simulation_result = (success_count)/self.number_simulations
return self
def test_remove_top_card_object(self):
test_deck_path = os.path.join("..", "decks", "testdeckold.json")
deck = Deck("Some Dude", test_deck_path)
deck_size = len(deck.deck)
card = deck.deck[0]
deck.remove_card(card)
self.assertEqual(deck_size, len(deck.deck) + 1)
class Game(object): def __init__(self): self.player = Player() self.deck = Deck() self.dealer = Dealer() self.isFirstDeal = True def dealToPlayer(self): if self.isFirstDeal: card1 = self.deck.randomDraw() card2 = self.deck.randomDraw() self.player.hand.extend([card1, card2]) self.isFirstDeal = False else: card = self.deck.randomDraw() self.player.hand.append(card) pass print "Your Hand: ", self.player.hand def play_round(self): while self.player.play_action().low() == "h": #returns Hit or Stand" if self.player.choice.low() == "h": self.player.dealToPlayer() else: # end of the game self.player.hand self.dealer.play_action() def play_game(self):
class Player():
def __init__(self, name, cash):
"""
name: name of the player
cash: used for gambling
hand: your current hand of cards
total: blackjack total
"""
self.name = name
self.cash = cash
self.hand = Deck()
self.total = 0
def __str__(self):
""" pretty printing """
return "{} (${:>5}): <{:>3}> | {}".format(self.name, self.cash, self.total, self.hand)
def __add__(self, card):
""" add card to the hand """
self.hand.return_card(card)
self._find_total()
return self
def _find_total(self):
""" Total is blackjack specific """
total = 0
for card in self.hand:
if card.rank.isdigit():
total += int(card.rank)
elif card.rank in ["K", "Q", "J"]:
total += 10
for card in self.hand:
if card.rank == "A":
if total + 11 < 21:
total += 11
else:
total += 1
self.total = total
def discard(self):
""" remove all cards from hand, to put back into the deck """
tmp = self.hand
self.hand = Deck()
self.total = 0
return tmp
def wager(self, cash):
""" subtract cash, return the pot amount """
# You can't wager more than you have
if cash > self.cash:
# cash goes to 0, bet all you have
tmp = self.cash
self.cash = 0
return tmp
else:
self.cash -= cash
return cash
def test_middle_to_stack(self):
deck = Deck()
current_deck = deck.deck
current_middle = deck.get_current_middle()
current_deck.append(current_middle)
deck.middle_to_stack()
self.assertEqual(current_deck, deck.deck)
def game():
# Instantiate game deck, player and dealer
deck = Deck()
player = Hand()
dealer = Hand()
# Initial Deal
player.hand = [deck.hit() for _ in range(2)]
dealer.hand = [deck.hit() for _ in range(2)]
print("\n\nWelcome to Blackjack.\n")
playing = True
player_stays = False
while playing is True:
player.get_value()
dealer.get_value()
print("Your Hand: {}".format(list(player.hand[0:])))
print("Your Hand's Value: {}".format(player.value))
print("\nDealer's Hand: [xxx Hidden Card xxx], {}".format(dealer.hand[1:]))
print("Dealer's Hand Value Showing: {}".format(dealer.shown_value))
print("_" * 60)
if player_stays is False:
if player.value < 21:
player_hit = input("\nWould you like to hit? Y/n").lower()
if player_hit != 'n':
player.hand.append(deck.hit())
else:
print("You Have Decided To Stay.")
player_stays = True
else:
player_stays = True
else:
if player.value > 21:
print("You Lose! Bust!")
playing = False
else:
if dealer.value < 17:
dealer.hand.append(deck.hit())
print("Dealer Hits.")
else:
if dealer.value > 21:
print("You Win! Dealer Busts.")
playing = False
elif dealer.value > player.value:
print("Dealer's Hand Beats Yours. You lost.")
playing = False
elif dealer.value == player.value:
print("Push. Nobody won.")
playing = False
else:
print("Your Hand Beats Dealer's Hand! You Win!")
playing = False
print("\n\nDealer's Hand Was: {} Total Value {}".format(dealer.hand, dealer.value))
if input("\nGame over. Play again? Y/n").lower() != 'n':
game()
else:
print("Goodbye!")
class DeckTest(unittest.TestCase): def setUp(self): """Set up testing environment for deck""" self.deck = Deck() def tearDown(self): """Tear down testing environment for deck""" self.deck = None def test_check_bust_true(self): """Test that if someone busts, it returns True""" hand = ['Ts', '9c', 'Qs'] self.assertEqual(self.deck.check_bust(hand), True) def test_check_bust_false(self): """Test that if someone does not bust, it returns False""" hand = ['2d', '3s', '5d', '6h'] self.assertEqual(self.deck.check_bust(hand), False) def test_check_bust_21(self): """Test that if someone has exactly 21 they do not bust and return False""" hand = ['Js', 'Ac'] self.assertEqual(self.deck.check_bust(hand), False) def test_grab_numbers(self): """Test that the numbers or face cards are selected from their suits for adding""" hand = ['Js', '2d'] self.assertEqual(self.deck.grab_numbers(hand), [10, 2]) def test_calculate_hand(self): """Test that the numbers from the cards add up""" hand = ['Ad', '5h', '2h'] self.assertEqual(self.deck.calculate_hand(hand), 18)
class Game:
''' '''
def __init__(self, nplayers, ndecks=1):
''' '''
self.deck = Deck()
self.players = [deepcopy(NO_PLAYER) for i in range(nplayers)]
self.curr_plr = self.players[0]
def begin(self, ncards):
''' '''
self.curr_plr = self.players[0]
self.deck.shuffle()
self.deal(ncards)
def deal(self, n):
''' '''
for p in self.players:
p.hand.cards = self.deck.draw(n)
def new_player(self, name, seat):
''' '''
if NO_PLAYER in self.players:
if (seat >= len(self.players)) or not (self.players[seat] == NO_PLAYER):
# if the seat preference is taken, seat in the minimum available seat
seat = min([x for x in range(len(self.players)) if self.players[x] == NO_PLAYER])
self.players[seat] = Player(name, seat)
def next_player(self):
''' '''
id_ = self.players.index(self.curr_plr)
id_ += 1
if id_ >= len(self.players):
id_ = 0
self.curr_plr = self.players[id_]
def next_card(self, turn_deck=None):
if not turn_deck:
turn_deck = Deck()
if self.is_game_over():
return
self.turn += 1
print("Turn {}".format(self.turn))
print("Decks:\n------\nPlayer 1: {}\nPlayer 2: {}"
.format(self.deck1, self.deck2))
c1 = self.deck1.deal()
c2 = self.deck2.deal()
turn_deck.add(c1)
turn_deck.add(c2)
print("{} {}\n".format(c1, c2))
higher_card = self.determine_higher_card(c1, c2)
if higher_card == 1:
for card in turn_deck.cards:
self.deck1.add(card) # TODO more pythonic if just in turn_deck
elif higher_card == 2:
for card in turn_deck.cards:
self.deck2.add(card) # TODO more pythonic if just in turn_deck
else:
self.go_to_war(turn_deck)
return
class Game(object):
'''
classdocs
'''
def __init__(self, lang, startPoint, nteams):
'''
Constructor
'''
# Initialize all the game related stuff
# TODO: error check on deckPath
# Initialize the Deck
self.deckEmpty = True
deckPath = DECKS_FOLDER + "/"+lang[0:2]+"/cards"
self.deck = Deck(deckPath, startPoint)
if self.deck.getLength() > 0:
self.deckEmpty = False
# Initialize the teams object
self.teams = []
for i in range(0, nteams):
self.teams.append(Team(self, i))
# Initialize the game board TODO
self.board = 0
def newTurn(self, timeout):
'''
Create turn and select not last playing team.
return back the turn object pointer.
'''
for t in self.teams:
if t.wasLastPlaying() == False:
break
if t.wasLastPlaying():
raise Exception('Error in teams switching')
#TODO: start team play
turn = Turn(self, t, timeout)
self.currentTurn = turn
return self.currentTurn
def getCurrentTurn(self):
return self.currentTurn
def isDeckEmpty(self):
return self.deckEmpty
def getRandomCard(self):
'''
Pick a card randomly. The picked card will be removed from the deck.
'''
if self.deck.getLength() > 0:
return self.deck.getRandomCard()
else:
self.deckEmpty = True
return False
def testDrawCards(self):
'''
Tests drawing multiple cards
'''
deck = Deck()
self.assertEqual(len(deck.draw_cards(5)), 5)
self.assertEqual(len(deck._deck), 52-5)
def test_pop_four_from_deck_of_two_returns_two(self):
deck = Deck(0)
deck.cards.extend([self.two, self.ace])
result = deck.pop_card(4)
result_contains_cards = self.two in result and self.ace in result
self.assertTrue(result_contains_cards)
self.assertEqual(len(deck.cards), 0)
self.assertEqual(len(result), 2)
def initialize_deck(self):
cards = []
for value in range(1, 14):
cards.extend(BlackJackCard(value, Suit(st))
for st in Suit.get_all_suit_types())
deck = Deck()
deck.set_cards(cards)
deck.reset()
self._deck = deck
def test_deck52Cards(): """ Checks if returned deck is a normal 52 card deck. """ myDeck = Deck() myDeck.shuffle() cards = myDeck.getCards() assert len(cards) == 52
def testNumbCardsLeft(): #Testing method numbCardsLeft deck = Deck() assert deck.numbCardsLeft() == 52 del deck.deck["two"] assert deck.numbCardsLeft() == 48
def start_new_deal(game_state, dealer_index):
deck = Deck()
game_state.cards_remaining = set(deck.cards)
hands = deck.deal()
game_state.trump = hands[dealer_index][-1].suit
for i in xrange(NUM_PLAYERS):
game_state.players[i].cards = hands[i]
game_state.players[i].round_start(game_state)
reset_player_possible_suits(game_state)
reset_unlikelies(game_state)
def test_calc_total_vp(self):
"""Test calculating the total vp in a player's deck."""
deck = Deck()
# Test that a default deck has 3 VP
assert_equal(deck.calc_total_vp(), 3)
# Test that adding a province gives 9 VP
deck.discard_pile.append(cards.Province)
assert_equal(deck.calc_total_vp(), 9)
def test_deck_shuffles(self):
test_deck_path = os.path.join("..", "decks", "smalltestdeck.json")
df = Deck("Some Dude", test_deck_path)
df.shuffle(3)
test_shuffle_output = os.path.join("..", "decks", "smalltestdeckshuffletest.txt")
with open(test_shuffle_output, "r") as fp:
expected_output = fp.readlines()
for i in range(0,len(df.deck)):
self.assertIn(str(df.deck[i].power), expected_output[i])
self.assertIn(str(df.deck[i].denomination), expected_output[i])
def test_card_from_string_function(self):
df = Deck("TestName")
card_example = "9 1 Tribble - Go"
count = 0
for each_card in df.convert_string_to_cards(card_example):
count += 1
self.assertEqual(each_card.denomination, 1)
self.assertEqual(each_card.power, Power.Go)
self.assertEqual(count, 9)
class DeckTest (unittest.TestCase): def setUp(self): self.deck = Deck() def test_reset(self): # reset deck to contain all cards self.deck.reset() self.assertEquals(len(self.deck.cards), self.deck.size, "Deck should be "+ str(self.deck.size) +" cards.") self.assertTrue((3, 's') in self.deck.cards, " Three of Spades should be included.") self.assertFalse((12, 'd') in self.deck.cards, " Twelve of Diamonds should not be included.") spades = [ card for card in self.deck.cards if card[1] == 's' ] self.assertEquals(len(spades), self.deck.size / 4, "Spades are 1/4 of the deck") def test_shuffle(self): self.deck.reset() self.deck.shuffle() self.assertEquals(len(self.deck.cards), self.deck.size, "Deck must stay the same size.") def test_deal_card(self): self.deck.reset() initial_size = self.deck.size last_card_in_deck = self.deck.cards[-1] card = self.deck.deal_card() new_size = self.deck.size self.assertEquals(initial_size, new_size + 1, "New Deck is correct size") self.assertEquals(last_card_in_deck, card, "Dealt card was at end of deck")
def couple_check():
card_to_check = 1;
myDeck = Deck("French", 13)
myDeck.shuffle_deck()
success = False
card_1 = myDeck.pop_card()
card_2 = myDeck.pop_card()
if (card_1['number'] == card_to_check and card_2['number'] == card_to_check):
success = True
return success
class Table:
def __init__(self):
self.__read_config__()
self.__init__seats()
self.button = self.conf["button"]
self.big_blind_amount = self.conf["big_blind_amount"]
self.small_blind_amount = self.conf["small_blind_amount"]
self.rake = self.conf["rake"]
self.deck = Deck()
self.pot = 0
def __init__seats(self):
self.seats = []
for player in range(1, 11):
try:
conf = self.conf["seats"][str(player)]
if not conf:
self.seats.append(None)
else:
self.seats.append(Player(conf, table=self))
except:
self.seats.append(None)
def __read_config__(self):
self.conf = json.loads(open("table_config.json").read())
def take_blinds(self):
button = int(self.button)
current_seat = button
small_blind_taken = False
big_blind_taken = False
while not big_blind_taken:
current_seat = current_seat + 1
if current_seat == 11:
current_seat = 1
if self.seats[current_seat]:
if small_blind_taken:
self.pot = self.pot + self.seats[current_seat].take_money(self.big_blind_amount)
big_blind_taken = True
else:
self.pot = self.pot + self.seats[current_seat].take_money(self.small_blind_amount)
small_blind_taken = True
def deal(self):
self.take_blinds()
self.deck.new_deck()
for card in range(0, 2):
for player in self.seats:
if player:
player.accept_card(self.deck.get_card())
class CoupGame(object):
def __init__(self):
self.deck = Deck()
self.destroyedCards = []
self.players = PlayerQueue()
#coins dispersed
self.treasury = 50 - 2 * self.players.numPlayers() #50 is starting amt
#deck shuffled
self.deck.shuffle()
class CardGame:
def __init__(self):
self.deck = Deck()
self.deck.shuffle()
def getDeck(self):
return self.deck
def printHands(self):
for hand in self.hands:
print hand
def __init__(self, num_players=2):
self.num_players = num_players
self.hands = [Hand for _ in range(num_players)]
self.deck = Deck()
def __init__(self, deck: Deck = Deck(), number_of_players=DEFAULT_NUM_OF_PLAYERS):
self._players = []
self._hand_to_player = {}
self._deck = deck
self.number_of_players = number_of_players
self._game_setup()
def __init__(self): super(Game, self).__init__() self.deck = Deck() self.score = dict.fromkeys(['p1', 'p2'], 0) # Should this be a view? self.history = OrderedDict() self.winner = True in [self.score[p] >= 121 for p in self.score.keys()]
def test_missing_cards_from_sideboard(self):
test_collection = Collection(TEST_COLLECTION_NAME)
self.assertEqual(test_collection.size(), 0)
empty_main_deck = []
test_sideboard = []
CARDS_IN_SIDEBOARD = 25
ARBITRARY_NUMBER = 5 #must be less than CARDS_IN_SIDEBOARD
for x in range(0, CARDS_IN_SIDEBOARD):
quantity = random.randint(1, 4)
card = Card("card" + str(x), quantity)
test_sideboard.append(card)
test_deck = Deck(empty_main_deck, test_sideboard)
#an empty collection should be missing every card
cards_missing_from_sideboard = test_collection.missing_cards_from_sideboard(
test_deck)
#assert that return list is of equal length to deck
self.assertEqual(len(cards_missing_from_sideboard), CARDS_IN_SIDEBOARD)
index = 0
for card in cards_missing_from_sideboard:
#assert that return list has a list of cards equivalent to sideboard
self.assertEqual(card.name, test_deck.sideboard[index].name)
self.assertEqual(card.quantity,
test_deck.sideboard[index].quantity)
index += 1
#a "full" collection should be missing no cards
for x in range(0, CARDS_IN_SIDEBOARD + CARDS_IN_SIDEBOARD):
quantity = random.randint(4, 10)
card = Card("card" + str(x), quantity)
test_collection.add_card(card)
cards_missing_from_sideboard = test_collection.missing_cards_from_main_deck(
test_deck)
self.assertEqual(len(cards_missing_from_sideboard), 0)
#a "partially full" collection should be missing some cards
test_collection = Collection(TEST_COLLECTION_NAME)
self.assertEqual(test_collection.size(), 0)
for x in range(0, CARDS_IN_SIDEBOARD - ARBITRARY_NUMBER):
quantity = random.randint(0, 2)
card = Card("card" + str(x), quantity)
test_collection.add_card(card)
cards_missing_from_sideboard = test_collection.missing_cards_from_sideboard(
test_deck)
index = 0
for card in test_deck.sideboard:
if not test_collection.cards.get(card.name):
self.assertEqual(cards_missing_from_sideboard[index].name,
card.name)
self.assertEqual(cards_missing_from_sideboard[index].quantity,
card.quantity)
index += 1
elif test_collection.cards.get(card.name) < card.quantity:
self.assertEqual(cards_missing_from_sideboard[index].name,
card.name)
self.assertEqual(
cards_missing_from_sideboard[index].quantity,
card.quantity - test_collection.cards.get(card.name))
index += 1
#test when cards are overlapping from sideboard and maindeck
test_collection = Collection(TEST_COLLECTION_NAME)
self.assertEqual(test_collection.size(), 0)
test_sideboard = []
test_main_deck = []
#populate collection
for x in range(0, 1000):
quantity = random.randint(1, 20)
card = Card("card" + str(x), quantity)
test_collection.add_card(card)
#populate sideboard
for x in range(0, 1000):
quantity = random.randint(1, 10)
card = Card("card" + str(x), quantity)
test_sideboard.append(card)
#populate maindeck
for x in range(0, 1000):
quantity = random.randint(1, 10)
card = Card("card" + str(x), quantity)
test_main_deck.append(card)
self.assertEqual(len(test_sideboard), 1000)
self.assertEqual(len(test_main_deck), 1000)
test_deck = Deck(test_main_deck, test_sideboard)
cards_missing_from_sideboard = test_collection.missing_cards_from_sideboard(
test_deck)
cards_missing_from_main_deck = test_collection.missing_cards_from_main_deck(
test_deck)
sideboard_index = 0
main_deck_index = 0
#quantity in collection + cards_missing_from_main_deck + cards_missing_from_sideboard (cmm)
# = main_deck + sideboard
#if quanitity in collection < quantity main + quantity board
md_bounds = len(cards_missing_from_main_deck)
sb_bounds = len(cards_missing_from_sideboard)
for x in range(0, 1000):
current_card = "card" + str(x)
cmm_quantity = 0
tmp_side = 0
tmp_main = 0
if sideboard_index < sb_bounds:
if cards_missing_from_sideboard[
sideboard_index].name == current_card:
tmp_side = cards_missing_from_sideboard[
sideboard_index].quantity
cmm_quantity += cards_missing_from_sideboard[
sideboard_index].quantity
sideboard_index += 1
if main_deck_index < md_bounds:
if cards_missing_from_main_deck[
main_deck_index].name == current_card:
tmp_main = cards_missing_from_main_deck[
main_deck_index].quantity
cmm_quantity += cards_missing_from_main_deck[
main_deck_index].quantity
main_deck_index += 1
if test_collection.cards.get(current_card) >= (
test_deck.main_deck[x].quantity +
test_deck.sideboard[x].quantity):
pass
else:
self.assertEqual(
test_collection.cards.get(current_card) + cmm_quantity,
test_deck.main_deck[x].quantity +
test_deck.sideboard[x].quantity)
class Game(object):
""" This class represents a game of UNO """
current_player = None
reversed = False
choosing_color = False
started = False
draw_counter = 0
players_won = 0
starter = None
mode = DEFAULT_GAMEMODE
job = None
owner = ADMIN_LIST
open = OPEN_LOBBY
translate = ENABLE_TRANSLATIONS
scores = dict()
last_round_score = list()
win_score = SCORE_WIN
def __init__(self, chat):
self.chat = chat
self.last_card = None
self.deck = Deck()
self.logger = logging.getLogger(__name__)
@property
def players(self):
"""Returns a list of all players in this game"""
players = list()
if not self.current_player:
return players
current_player = self.current_player
itplayer = current_player.next
players.append(current_player)
while itplayer and itplayer is not current_player:
players.append(itplayer)
itplayer = itplayer.next
return players
def start(self):
if self.mode == None or self.mode != "wild":
self.deck._fill_classic_()
else:
self.deck._fill_wild_()
self._first_card_()
self.started = True
def set_mode(self, mode):
self.mode = mode
def reverse(self):
"""Reverses the direction of game"""
self.reversed = not self.reversed
def turn(self):
"""Marks the turn as over and change the current player"""
self.logger.debug("Next Player")
self.current_player = self.current_player.next
self.current_player.drew = False
self.current_player.turn_started = datetime.now()
self.choosing_color = False
def _first_card_(self):
# In case that the player did not select a game mode
if not self.deck.cards:
self.set_mode(DEFAULT_GAMEMODE)
# The first card should not be a special card
while not self.last_card or self.last_card.special:
self.last_card = self.deck.draw()
# If the card drawn was special, return it to the deck and loop again
if self.last_card.special:
self.deck.dismiss(self.last_card)
self.play_card(self.last_card)
def play_card(self, card):
"""
Plays a card and triggers its effects.
Should be called only from Player.play or on game start to play the
first card
"""
self.deck.dismiss(self.last_card)
self.last_card = card
self.logger.info("Playing card " + repr(card))
if card.value == c.SKIP:
self.turn()
elif card.special == c.DRAW_FOUR:
self.draw_counter += 4
self.logger.debug("Draw counter increased by 4")
elif card.value == c.DRAW_TWO:
self.draw_counter += 2
self.logger.debug("Draw counter increased by 2")
elif card.value == c.REVERSE:
# Special rule for two players
if self.current_player is self.current_player.next.next:
self.turn()
else:
self.reverse()
# Don't turn if the current player has to choose a color
if card.special not in (c.CHOOSE, c.DRAW_FOUR):
self.turn()
else:
self.logger.debug("Choosing Color...")
self.choosing_color = True
def choose_color(self, color):
"""Carries out the color choosing and turns the game"""
self.last_card.color = color
self.turn()
def add_score(self, player):
"""Add total value of all card in every players hand
to the winner's score."""
scores = 0
self.last_round_score.clear()
for p in self.players:
for card in p.cards:
sc = c.CARD_SCORES[card.value or card.special]
self.last_round_score.append((sc, card))
scores += sc
try:
self.scores[player.user.id] += scores
except KeyError:
self.scores[player.user.id] = scores
def reset_cards(self):
"""Reset game deck and player's hand"""
players_cache = self.players
# clear player's card, might as well use player.cards.clear()
for player in players_cache:
for card in player.cards:
self.deck.dismiss(card)
player.cards = list()
# fill deck with normal cards set
self.deck._fill_classic_()
# draw player's hand
for player in players_cache:
player.draw_first_hand()
def new_round(self):
lc = self.last_card
while self.last_card == lc or not self.last_card or self.last_card.special:
self.last_card = self.deck.draw()
# If the card drawn was special, return it to the deck and loop again
if self.last_card.special:
self.deck.dismiss(self.last_card)
self.play_card(self.last_card)
def get_score(self, player):
try:
return self.scores[player.user.id]
except KeyError:
self.scores[player.user.id] = 0
return 0
def get_scores(self):
return [(player, self.get_score(player)) for player in self.players]
def __init__(self):
self.draw_pile = Main_Deck()
self.discard_pile = Deck()
self.foundation_1 = Deck()
self.foundation_2 = Deck()
self.foundation_3 = Deck()
self.foundation_4 = Deck()
self.deck_1 = Deck()
self.deck_2 = Deck()
self.deck_3 = Deck()
self.deck_4 = Deck()
self.deck_5 = Deck()
self.deck_6 = Deck()
self.deck_7 = Deck()
self.distribute_cards()
def build_num_deck():
return Deck(reduce(lambda x,y: x + y, list(map(lambda x: [x] * nums_dist[x],
[i for i in range(1,10)]))))
print('Choose:')
print('1. Hit, or 2. Stand')
hit = player.input()
if hit:
player.pick(deck.get_one())
else:
break
player.clear()
print(player.name + '\'s total sum was:', 'BUST!' if bust else card_sum)
return -1 if bust else card_sum
if __name__ == "__main__":
deck = Deck()
player = Player()
comp = Computer()
_round = 1
while player.balance > 0:
print('ROUND', _round)
print('The player\'s balance is', player.balance)
while True:
try:
print('Enter the bidding amount.')
bid_amount = int(input('> '))
player.bid(bid_amount)
break
class Hanabi:
players = []
deck = None
discard_pile = []
clock = 8
fuse = 3
fireworks = {'green': 0, 'white': 0, 'red': 0, 'yellow': 0, 'blue': 0}
last_round_counter = 0
def __init__(self, n_players):
self.turn_number = 0
self.discard_pile = []
self.clock = 8
self.fuse = 3
self.last_round_counter = 0
self.last_round = False
self.hints = {}
self.available_hints = []
self.last_action_taken = None
self.deck = Deck()
self.deck.shuffle()
self.n_players = n_players
self.player_hands = {}
for i in range(n_players):
self.players.append(Player(i))
self.hints[i] = []
if n_players <= 3:
n_cards = 5
else:
n_cards = 4
for p in self.players:
#p.hand = [None]*n_cards
self.player_hands[p.player_number] = [None] * n_cards
for card_num in range(n_cards):
#self.draw_card(p, card_num)
#p.draw(self.deck)
self.draw_card(p.player_number, card_num)
self.current_player = random.randint(0, n_players - 1)
for p in self.players:
p.log_observed_state(self.observed_state(p.player_number))
# log = Log()
# log.log_state(self.game_state())
def game_state(self):
state = {
'fireworks': self.fireworks,
'clock': self.clock,
'fuse': self.fuse,
'last_round': self.last_round,
'last_round_counter': self.last_round_counter,
'current_player': self.current_player,
'turn_number': self.turn_number,
'cards_left': self.deck.cards_left(),
'player_hands': self.player_hands,
'discard_pile': self.discard_pile,
'last_action_taken': self.last_action_taken
}
return state
def observed_state(self, player_number):
observed_hands = deepcopy(self.player_hands)
masked_hand = list(
map(lambda x: x != None, self.player_hands[player_number]))
observed_hands[player_number] = masked_hand
state = {
'fireworks': self.fireworks,
'clock': self.clock,
'fuse': self.fuse,
'last_round': self.last_round,
'last_round_counter': self.last_round_counter,
'current_player': self.current_player,
'turn_number': self.turn_number,
'cards_left': self.deck.cards_left(),
'player_hands': observed_hands,
'discard_pile': self.discard_pile,
'hints': self.hints,
'last_action_taken': self.last_action_taken
}
return deepcopy(state)
def next_turn(self):
if self.last_round:
print("LAST ROUND")
self.last_round_counter += 1
# Print game state info
print("\n")
print("-" * 20)
print("Player #{}'s turn.\n".format(self.current_player))
print("Time left: {}".format(self.clock))
print("Fuse length: {}\n".format(self.fuse))
print("Discarded/played cards: {}\n".format(self.discard_pile))
print("{} cards left in deck. \n".format(self.deck.cards_left()))
#print("\nFireworks: {}\n".format(self.fireworks))
self.print_fireworks()
# print("\nOther players' hands:")
# for p in self.players:
# if p.player_number == self.current_player:
# pass
# else:
# print("Player #{}: {}".format(p.player_number, self.player_hands[p.player_number]))
print("")
self.print_observed_hands(self.current_player)
print("")
#print("\nHints given:")
#pprint(self.hints)
self.print_hints()
# update hint options
#self.hint_options = self.generate_hints(self.current_player)
player_action = self.players[self.current_player].take_turn()
self.take_action(self.current_player, player_action)
self.current_player = (self.current_player + 1) % self.n_players
self.turn_number += 1
for p in self.players:
p.log_observed_state(self.observed_state(p.player_number))
def take_action(self, player_number, action):
if action['action'] == 'discard_card':
card_num = action['action_data']
self.discard_card(player_number, card_num)
elif action['action'] == 'play_card':
card_num = action['action_data']
self.play_card(player_number, card_num)
elif action['action'] == 'give_hint':
# hint_num = action['num']
# hint = self.hint_options[hint_num]
# self.hints[hint['player']].append({'cards': hint['cards'], 'card_type': hint['card_type']})
hint = action['action_data']
if hint not in self.hint_options(player_number):
print("Invalid Hint.")
return -1
else:
self.hints[hint['player']].append({
'cards':
hint['cards'],
'card_type':
hint['card_type']
})
self.clock -= 1
print("Hint: {} given. 1 hour lost.".format(hint))
else:
print("Error. Invalid Action")
self.last_action_taken = {
'player': player_number,
'action': action['action'],
'action_data': action['action_data']
}
def hint_options(self, player_number):
hint_options = []
for p_num, hand in self.player_hands.items():
if p_num == player_number:
continue
card_types = set([i[0] for i in hand] + [i[1] for i in hand])
for t in card_types:
card_nums = []
if type(t) == str:
for card_num, card in enumerate(hand):
if card[0] == t:
card_nums.append(card_num)
else:
for card_num, card in enumerate(hand):
if card[1] == t:
card_nums.append(card_num)
hint = {'player': p_num, 'cards': card_nums, 'card_type': t}
hint_options.append(hint)
return hint_options
# def give_hint(self, player_number, hint):
# self.hints[player_number].append(hint)
# self.clock -= 1
# def discard_card(self, player, card_num):
# card = player.hand[card_num]
# self.discard_pile.append(card)
# print("Card {} discarded.".format(card))
# self.clock = min(self.clock + 1, 8)
# self.draw_card(player, card_num)
def discard_card(self, player_number, card_num):
card = self.player_hands[player_number][card_num]
self.discard_pile.append(card)
print("Card {} discarded.".format(card))
self.clock = min(self.clock + 1, 8)
self.draw_card(player_number, card_num)
# def draw_card(self, player, card_num):
# # draw new card and put it in the place of the old one
# if self.deck.cards_left() > 0:
# player.hand[card_num] = self.deck.pop()
# else:
# player.hand[card_num] = None
# print("No more cards in deck. No card drawn")
# pass
# # remove hints relating to the old card
# player_hints = self.hints[player.player_number]
# new_hints = []
# for h in player_hints:
# try:
# h[0].remove(card_num)
# except:
# pass
# if len(h[0]) == 0:
# continue
# else:
# new_hints.append(h)
# self.hints[player.player_number] = new_hints
# #print(self.hints[player.player_number])
def draw_card(self, player_number, card_num):
# draw new card and put it in the place of the old one
if self.deck.cards_left() > 0:
self.player_hands[player_number][card_num] = self.deck.pop()
else:
self.player_hands[player_number][card_num] = None
print("No more cards in deck. No card drawn")
return 0
# print("hints for player {}".format(player.player_number))
#
# print(player_hints)
# remove hints relating to the old card
print("removing hints")
print("card_num: {}".format(card_num))
player_hints = self.hints[player_number]
print("player_hints: {}".format(player_hints))
new_hints = []
for h in player_hints:
try:
h['cards'].remove(card_num)
#h[0].remove(card_num)
except:
continue
if len(h['cards']) == 0:
continue
else:
new_hints.append(h)
self.hints[player_number] = new_hints
print(self.hints[player.player_number])
# def play_card(self, player, card_num):
# # play the card
# card = player.hand[card_num]
# self.discard_pile.append(card)
# stack_count = self.fireworks[card[0]]
# if card[1] == stack_count + 1:
# self.fireworks[card[0]] += 1
# print("Card {} successfully added".format(card))
# print("Fireworks: {}".format(self.fireworks))
# # 5 - firework complete
# if self.fireworks[card[0]] == 5:
# print("{} firework complete! 1 hour has been added to the clock.".format(card[0]))
# self.clock = min(self.clock + 1, 8)
# else:
# print("Card {} does not match any fireworks.".format(card))
# print("Card discarded and fuse has been shortened. Fuse: {}".format(self.fuse))
# self.fuse -= 1
# self.draw_card(player, card_num)
def play_card(self, player_number, card_num):
# play the card
card = self.player_hands[player_number][card_num]
self.discard_pile.append(card)
stack_count = self.fireworks[card[0]]
if card[1] == stack_count + 1:
self.fireworks[card[0]] += 1
print("Card {} successfully added".format(card))
print("Fireworks: {}".format(self.fireworks))
# 5 - firework complete
if self.fireworks[card[0]] == 5:
print(
"{} firework complete! 1 hour has been added to the clock."
.format(card[0]))
self.clock = min(self.clock + 1, 8)
else:
print("Card {} does not match any fireworks.".format(card))
self.fuse -= 1
print(
"Card discarded and fuse has been shortened. Fuse: {}".format(
self.fuse))
self.draw_card(player_number, card_num)
def end_game(self):
print("*" * 20)
final_score = reduce(lambda x, y: x + y, self.fireworks.values())
print("Game Over. Final Score: {}".format(final_score))
if final_score <= 5:
print("Horrible.")
elif final_score <= 10:
print("Mediocre.")
elif final_score <= 15:
print("Honorable Attempt")
elif final_score <= 20:
print("Excellent, crowd pleasing.")
elif final_score <= 24:
print("Amazing, they will be talking about it for weeks!")
elif final_score >= 25:
print("Legendary, everyone left speechless, stars in their eyes!")
return final_score
def get_color_tag(self, color):
if color == 'white':
return Style.BRIGHT + Fore.WHITE
elif color == 'yellow':
return Style.BRIGHT + Fore.YELLOW
elif color == 'red':
return Style.BRIGHT + Fore.RED
elif color == 'green':
return Style.BRIGHT + Fore.GREEN
elif color == 'blue':
return Style.BRIGHT + Fore.BLUE
def print_fireworks(self):
print("Fireworks: ", end=' ')
print(Style.BRIGHT + Fore.YELLOW +
'yellow:{}'.format(self.fireworks['yellow']) + Style.RESET_ALL,
end=' ')
print(Style.BRIGHT + Fore.RED +
'red:{}'.format(self.fireworks['red']) + Style.RESET_ALL,
end=' ')
print(Style.BRIGHT + Fore.WHITE +
'white:{}'.format(self.fireworks['white']) + Style.RESET_ALL,
end=' ')
print(Style.BRIGHT + Fore.GREEN +
'green:{}'.format(self.fireworks['green']) + Style.RESET_ALL,
end=' ')
print(Style.BRIGHT + Fore.BLUE +
'blue:{}'.format(self.fireworks['blue']) + Style.RESET_ALL)
def print_observed_hands(self, player_number):
print("Hands:")
for p in self.players:
print(" Player #{}: ".format(p.player_number), end='')
if p.player_number == self.current_player:
print(list(
map(lambda x: x != None,
self.player_hands[player_number])),
end='')
else:
for c in self.player_hands[p.player_number]:
if c != None:
color_tag = self.get_color_tag(c[0])
print(color_tag + c[0] + " " + str(c[1]) +
Style.RESET_ALL,
end=' ')
else:
print("None", end=' ')
print("")
def print_hints(self):
def hint_str(hint):
if len(hint['cards']) == 1:
return ("Card {} is {}.".format(hint['cards'],
hint['card_type']))
else:
return ("Cards {} are {}.".format(hint['cards'],
hint['card_type']))
print("Hints Given:")
for p, hints in self.hints.items():
print(" Player #{}: ".format(p), end=' ')
for h in hints:
print(hint_str(h), end=' ')
print("")
class Game:
"""
contains logic for blackjack game
"""
def __init__(self, cut_index=0, num_players=1):
self.deck = Deck()
self.deck.shuffle()
self.deck.cut(cut_index)
self.players = [
Hand(self.deck.draw(), self.deck.draw())
for i in range(num_players)
]
self.dealer = Dealer(self.deck.draw(), self.deck.draw())
def play(self):
"""
play a single blackjack game
"""
player_finished = [False for i in range(len(self.players))]
print(self.dealer)
while not all(player_finished):
for i, player in enumerate(self.players):
if player.game_over() or player_finished[i]:
print(f'Player {i+1} is finished')
player_finished[i] = True
continue
print('-' * 60)
print(f"Player {i+1}'s turn")
print('-' * 60)
print(player)
print('-' * 60)
invalid = True
while invalid:
move = input(
'Do you want to hit or stay? \n>').strip().lower()
if move in ['h', 'hit', 's', 'stay']:
invalid = False
if move.startswith('h'):
player.add(self.deck.draw()
) # draw a card and add it to a player's hand
print(player)
if move.startswith('s'):
player_finished[i] = True
print('-' * 60)
print("Dealer's Turn")
print('-' * 60)
while self.dealer.should_hit():
print('Dealer hits')
print('-' * 60)
self.dealer.add(self.deck.draw())
print(self.dealer)
print('-' * 60)
# reveal final hands and results
print('-' * 60)
print(f"Dealer's Hand")
print('-' * 60)
self.dealer.reveal()
for i, player in enumerate(self.players):
print('-' * 60)
print(f"Player {i+1}'s hand")
print('-' * 60)
print(player)
points = player.points()
dealer_points = self.dealer.points()
if points == 21:
print('Blackjack!')
elif (points > 21) or points <= dealer_points <= 21:
print('You lose!')
else:
print('You win!')
class Game:
"""A game of Texas Hold'em."""
def __init__(self):
self.players_size = 0
self.players_list = []
self.dealer = 0
self.last_raise = 0
self.current_player = 0
self.pot = 0
self.current_cycle = 0
self.end_of_first = 0 # To prevent skipping big blind player
self.min_bet = 0
self.small_blind_points = 5
self.big_blind_points = 10
self.initial_points = 200
self.deck = None
self.common_cards = []
self.evaluator = Evaluator()
self.done = False # To be removed after command line testing
#The game's API consists entirely of the next 4 (possibly 5) methods:
#add_player, MAYBE remove_player, initialize_game, update_game, and
#poll_game.
#add_player is called to put players into the game before starting it.
#remove_player allows a player to be dropped from the game.
#initialize_game is called after all players have been added and takes
#care of everything related to starting the game.
#update_game is called every time a player ends their turn to update
#the internal state of the game to reflect that player's actions.
#poll_game is called by the server's HTML templater for the game room
#in order to get out the information it needs to deliver each player
#a version of the room tailored to them.
def add_player(self, name):
"""Create a new Player object and add it to the game. Return the
index in self.players_list of the player just created.
"""
self.players_size += 1
self.players_list.append(Player(name))
return self.players_size - 1
def remove_player(self, index):
self.players_size -= 1
def initialize_game(self):
"""When called, we allocate to each player a beginning number of
points and initialize the first round. The first betting cycle
then begins implicitly.
"""
for player in self.players_list:
player.points = self.initial_points
#For now the first player to join the lobby is made the dealer.
self._initialize_round(dealer=0)
def update_game(self, bet=0, fold=False):
"""Function that updates the internal state of the game whenever
a player concludes their turn. Takes as an argument the amount of
the bet (if any) placed by that player and whether or not that
player folded.
"""
#EVENTUALLY this function will need to validate the actions just
#made by the player & prompt them to redo if their actions were
#invalid.
#If only one active player remains.
if self._poll_active_players() == 1:
self._end_round(
self._get_next_active_player(self.current_player))
if self.end_of_first:
self.end_of_first = False
if bet == 0:
self._end_cycle()
return
#Otherwise, the player just checked or placed a bet.
#Need to check for when the player is able to check (as opposed
#to when they're required to place a bet).
if not fold:
if self.players_list[self.current_player].all_in:
pass
elif (
self.players_list[self.current_player].bet <
self.players_list[self._get_previous_active_player(
self.current_player)].bet):
raise ValueError(
"Your bet must at least equal the previous player's.")
self.pot += bet
if self.players_list[self.current_player].bet > self.players_list[
self._get_previous_active_player(self.current_player)].bet:
self.last_raise = self.current_player
self.min_bet = self.players_list[self.current_player].bet
self.current_player = \
self._get_next_active_player(self.current_player)
#If we have made it around the table to the last player who
#raised, and no additional raises have been made, end this
#betting cycle. An exception is made for the first round of
#betting, in which case the player who bet the big blind gets
#an opportunity to raise or check.
if self.last_raise == self.current_player:
if (
self.current_player == self._get_next_player(self.dealer, 2)
and self.current_cycle == 0):
self.end_of_first = True
else:
self._end_cycle()
def poll_game(self, player=None):
"""Return a dictionary containing useful information about the
state of the game. If a player index is passed in, the dictionary
includes information about that specific player, which makes this
function a one-stop shop for users to get information specific to
the game from their perspective.
"""
info = {
'dealer': self.dealer,
'small_blind': self._get_next_player(self.dealer),
'big_blind': self._get_next_player(self.dealer, 2),
'pot': self.pot,
}
community = []
for card in self.common_cards:
community.append([card.value, card.suit, card.string])
info.update({'community': community})
players = []
if player is not None:
#Loop beginning with the player on this player's left up
#through the player on their right. Gather information about
#the other players that this player needs to be able to see
#on their game screen.
for other_player in self.players_list[player + 1:] + \
self.players_list[:player]:
players.append([
other_player.name,
other_player.bet,
other_player.points,
other_player.active,
])
info.update({
'turn': True if player == self.current_player else False,
'dealer': True if player == info['dealer'] else False,
'small_blind': True if player == info['small_blind'] else False,
'big_blind': True if player == info['big_blind'] else False,
'points': self.players_list[player].points,
'bet': self.players_list[player].bet,
'active': self.players_list[player].active,
'name': self.players_list[player].name,
'players': players,
})
hand = []
for card in self.players_list[player].hand:
hand.append([card.value, card.suit, card.string])
info.update({'hand': hand})
else:
#If a spectator is making this request, return a minimal amount
#of information on all players.
for other_player in self.players_list:
players.append({
'name': other_player.name,
'bet': other_player.bet,
'points': other_player.points,
'active': other_player.active,
})
info.update({'players': players})
return info
def _initialize_round(self, dealer=None):
"""Assign one player the role of dealer and the next two players
the roles of small blind and big blind. If the "dealer" argument
is passed in, the game forces that player to be the dealer.
Otherwise, it looks at its internal self.dealer and assigns to the
NEXT player the role of dealer. The small blind and big blind are
made to place their bets.
"""
# Initialize a new deck object for each round
self.deck = Deck()
# Remove players without enough $ to play
for index, player in enumerate(self.players_list):
if player.points < self.big_blind_points:
self.remove_player(index)
#Determine who the dealer, small blind, big blind, and first turn
#will be for the next round.
if dealer is not None:
self.dealer = dealer
else:
self.dealer = self._get_next_player(self.dealer)
small_blind = self._get_next_player(self.dealer)
big_blind = self._get_next_player(small_blind)
self.last_raise = big_blind
self.current_player = self._get_next_player(big_blind)
#Deal two cards to each player and reset their bets and active
#status from the last round.
for player in self.players_list:
player.bet = 0
player.active = True
player.hand = [self.deck.get_card(), self.deck.get_card()]
#Reset the pot and force the small blind and big blind to place
#their bets.
self.pot = 0
self.pot += self.players_list[small_blind].call(
self.small_blind_points)
self.pot += self.players_list[big_blind].call(
self.big_blind_points)
self.min_bet = self.big_blind_points
#Will eventually need to check that these players have enough
#points to place the bet.
self.current_cycle = 0
self.common_cards = []
def _end_cycle(self):
"""Called when the current betting cycle has concluded. This
happens when the player whose turn it would currently be was the
last player to raise. Initializes the next betting cycle or ends
the round.
"""
if self.current_cycle >= 3:
#If this was the last betting cycle.
self._end_round()
else:
if self.current_cycle == 0:
self.common_cards = [
self.deck.get_card(),
self.deck.get_card(),
self.deck.get_card()
]
else:
self.common_cards.append(self.deck.get_card())
self.current_cycle += 1
# Sets current player to first active player left of the big blind.
self.current_player = \
self._get_next_active_player(
self._get_next_player(self.dealer, 2))
self.last_raise = self.current_player
def _end_round(self, winner=None):
"""Called when the current round ends - either when all players
but one fold, or when the last betting cycle is completed. When
an argument is passed, the round is assumed to have ended because
all players but the one with the index passed have folded.
Determines a winner in the showdown (if applicable) and gives the
pot to the winner.
"""
# Find and save best hand for active each player, while keeping
# track of the overall best hand
best_rank = 7463 # Worst possible actual rank is 7462
best_string = '' # i.e. 'Full House' or 'Pair of Eights', etc.
best_cards = [] # Cards comprising the winning hand.
Tie = False
if winner is None:
for index, player in enumerate(self.players_list):
if player.active or player.all_in:
seven_cards = []
seven_cards.extend(self.common_cards)
seven_cards.extend(player.hand)
rank, string, cards = self.evaluator.get_best(seven_cards)
if rank < best_rank:
if Tie:
Tie = False
winner = index
winners_tie = [winner]
best_rank = rank
best_string = string
best_cards = cards
elif rank == best_rank:
Tie = True
winners_tie.append(index)
if Tie:
split_pot = self.pot // len(winners_tie)
for player_index in winners_tie:
self.players_list[player_index].points += split_pot
# If the winner was all in, they cannot win more than the pot amount
# at the time of going all in.
elif self.players_list[winner].all_in:
subpot = self._calculate_subpot(self.players_list[winner].bet)
self.players_list[winner].points += subpot
self.pot -= subpot
self.players_list[winner].all_in = False
if self.pot > 0:
self._end_round() # Find winner of remaining pot
else:
self.players_list[winner].points += self.pot
# For testing by running from command line.
self.done = True
self.best_string = best_string
self.pot_won = self.pot
self.winner = self.players_list[winner].name
self._initialize_round()
def _poll_active_players(self):
"""Find out how many players are active (haven't folded)."""
active_players = 0
for player in self.players_list:
if player.active:
active_players += 1
return active_players
def _get_next_active_player(self, index):
"""Get the next active player clockwise around the table from
the player at the index passed in. The index passed in must be a
valid index.
"""
count = 0
index = self._get_next_player(index)
while not self.players_list[index].active:
index = self._get_next_player(index)
count += 1
if count > self.players_size:
raise BaseException(
"_get_next_active_player is looping infinitely.")
return index
def _get_previous_active_player(self, index):
"""Get the next active player counterclockwise around the table
from the player at the index passed in. The index passed in must
be a valid index.
"""
count = 0
index = self._get_previous_player(index)
while not self.players_list[index].active:
index = self._get_previous_player(index)
count += 1
if count > self.players_size:
raise BaseException(
"_get_previous_active_player is looping infinitely.")
return index
def _get_next_player(self, index, step=1):
"""Get the player step positions to the left of the player at
the index passed in. The index passed in must be a valid index.
"""
if index not in range(self.players_size):
raise IndexError(
"Index %s passed to _get_next_player is out of range." %
index)
return (index + step) % self.players_size
def _get_previous_player(self, index, step=1):
"""Get the player step positions to the right of the player at
the index passed in. The index passed in must be a valid index.
"""
if index not in range(self.players_size):
raise IndexError(
"Index %s passed to _get_previous_player is out of range."
% index)
index -= step
while index < 0:
index += self.players_size
return index
def _get_subpot(self, bet):
subpot = 0
for player in self.players_list:
if bet >= player.bet:
subpot += player.bet
else:
subpot += bet
from deck import Deck
from sequence_of_functions.player_class import Player
from table import Table
if __name__ == '__main__':
deck = Deck()
deck.shuffle()
players = []
player_count = int(input('Please enter player count:\n'))
for i in range(player_count):
players.append(
Player(
input('Please enter the name for player no. ' + str(i + 1) +
'\n')))
table = Table(players=players, deck=deck)
table.initialize_game()
while len(table.cards) <= 5:
table.play_a_round()
class Hand:
def __init__(self, BlackjackGame):
self.deck = Deck()
self.playerHands = [BlackjackHand([self.deck.draw()])]
self.dealerHand = BlackjackHand([self.deck.draw()])
self.BlackjackGame = BlackjackGame
self.amtBet = USA('0.10')
self.playerHands[0].add(self.deck.draw())
self.dealerHand.add(self.deck.draw())
self.playerTurn = True
def __str__(self):
temp = ""
temp += "Dealer's hand:\n"
if self.playerTurn and self.dealerHand != 21:
temp += str(self.dealerHand.cards[0]) + '\n'
else:
temp += str(self.dealerHand)
temp += '\n'
for i in range(len(self.playerHands)):
if len(self.playerHands) > 1:
temp += "Player " + str(i + 1) + '\n'
temp += "Your hand:\n" + str(self.playerHands[i]) + '\n'
temp += "Current Value: " + str(self.playerHands[i].getValue())
temp += " Your bet: " + str(
self.amtBet) + " You have: " + str(
self.BlackjackGame.playerMoney)
return temp
#returns None if no further moves by player possible. Otherwise, returns the number option
#of their choice.
def getPlayerMove(self, playerNum):
if self.dealerHand.getValue() == 21:
self.BlackjackGame.playerMoney -= self.amtBet
print("Dealer blackjack! Hand lost. Your balance:",
self.BlackjackGame.playerMoney)
elif self.playerHands[playerNum].getValue() == 21:
self.BlackjackGame.playerMoney += self.amtBet
print("You got a blackjack! Hand won. Your balance:",
self.BlackjackGame.playerMoney)
elif self.playerHands[0].getValue() > 21:
self.BlackjackGame.playerMoney -= self.amtBet
print("You busted! Hand lost. Your balance:",
self.BlackjackGame.playerMoney)
else:
print("What would you like to do? Your balance: ",
self.BlackjackGame.playerMoney)
hitLocked = self.playerHands[playerNum].getValue() == 20
splitAvailable = False
#checking for split availability
if self.playerHands[playerNum].getValue() % 2 == 0:
if self.playerHands[playerNum].cards[0].value < 10:
splitAvailable = self.playerHands[playerNum].cards[
1].value == self.playerHands[playerNum].cards[
0].value
else:
splitAvailable = self.playerHands[playerNum].cards[
1].value >= 10
#outputting player options
option = 0
while option == 0:
if hitLocked:
print("[-] Hit locked due to hand value")
else:
print("[1] Hit")
print("[2] Stand")
if hitLocked:
print("[-] Double Down locked due to hand value")
else:
print("[3] Double Down")
if splitAvailable:
print("[4] Split")
else:
print("[-] Split not available")
print("[5] Surrender")
answer = input()
answer = answer.lower()
if (answer == '1' or answer == 'h'
or answer == 'hit') and not hitLocked:
option = 1
elif answer == '2' or answer == 'stand':
option = 2
elif (answer == '3' or answer == 'd' or answer == 'double'
or answer == 'double down') and not hitLocked:
option = 3
elif (answer == '4'
or answer == 'split') and splitAvailable:
option = 4
elif answer == '5' or answer == 'surrender':
option = 5
if option == 0:
print(
"Unable to determine answer. Please choose a valid option."
)
return option
def playerHit(self, playerNum):
self.playerHands[playerNum].add(self.deck.draw())
def playerDoubleDown(self, playerNum):
self.amtBet *= 2
self.playerHit(playerNum)
def build_op_deck():
return Deck(reduce(lambda x, y: x + y, list(map(lambda x : [x] * ops_dist[x],
list(ops_dist.keys())
))))
class Game:
def __init__(self):
self.draw_pile = Main_Deck()
self.discard_pile = Deck()
self.foundation_1 = Deck()
self.foundation_2 = Deck()
self.foundation_3 = Deck()
self.foundation_4 = Deck()
self.deck_1 = Deck()
self.deck_2 = Deck()
self.deck_3 = Deck()
self.deck_4 = Deck()
self.deck_5 = Deck()
self.deck_6 = Deck()
self.deck_7 = Deck()
self.distribute_cards()
def distribute_cards(self):
self.deck_1.add(self.draw_pile.getremove(0).flip())
self.deck_2.add(self.draw_pile.getremove(0))
self.deck_2.add(self.draw_pile.getremove(0).flip())
for i in range(2):
self.deck_3.add(self.draw_pile.getremove(0))
self.deck_3.add(self.draw_pile.getremove(0).flip())
for i in range(3):
self.deck_4.add(self.draw_pile.getremove(0))
self.deck_4.add(self.draw_pile.getremove(0).flip())
for i in range(4):
self.deck_5.add(self.draw_pile.getremove(0))
self.deck_5.add(self.draw_pile.getremove(0).flip())
for i in range(5):
self.deck_6.add(self.draw_pile.getremove(0))
self.deck_6.add(self.draw_pile.getremove(0).flip())
for i in range(6):
self.deck_7.add(self.draw_pile.getremove(0))
self.deck_7.add(self.draw_pile.getremove(0).flip())
def __repr__(self):
max_len = 0
for deck in [
self.deck_1, self.deck_2, self.deck_3, self.deck_4,
self.deck_5, self.deck_6, self.deck_7
]:
if len(deck) > max_len:
max_len = len(deck)
if len(self.discard_pile) == 0:
discard_1 = '[ Empty ]'
discard_2 = '[ Empty ]'
discard_3 = '[ Empty ]'
elif len(self.discard_pile) == 1:
discard_1 = f'{str(self.discard_pile.get(-1))}'
discard_2 = '[ Empty ]'
discard_3 = '[ Empty ]'
elif len(self.discard_pile) == 2:
discard_1 = f'{str(self.discard_pile.get(-1))}'
discard_2 = f'{str(self.discard_pile.get(-2))}'
discard_3 = '[ Empty ]'
else:
discard_1 = f'{str(self.discard_pile.get(-1))}'
discard_2 = f'{str(self.discard_pile.get(-2))}'
discard_3 = f'{str(self.discard_pile.get(-3))}'
if len(self.foundation_1) == 0:
found_1 = '[ Empty ]'
else:
found_1 = f'{str(self.foundation_1.get(-1))}'
if len(self.foundation_2) == 0:
found_2 = '[ Empty ]'
else:
found_2 = f'{str(self.foundation_2.get(-1))}'
if len(self.foundation_3) == 0:
found_3 = '[ Empty ]'
else:
found_3 = f'{str(self.foundation_3.get(-1))}'
if len(self.foundation_4) == 0:
found_4 = '[ Empty ]'
else:
found_4 = f'{str(self.foundation_4.get(-1))}'
if len(self.deck_1) == 0:
d_1 = '[ Empty ]'
else:
d_1 = f'{str(self.deck_1.get(0))}'
if len(self.deck_2) == 0:
d_2 = '[ Empty ]'
else:
d_2 = f'{str(self.deck_2.get(0))}'
if len(self.deck_3) == 0:
d_3 = '[ Empty ]'
else:
d_3 = f'{str(self.deck_3.get(0))}'
if len(self.deck_4) == 0:
d_4 = '[ Empty ]'
else:
d_4 = f'{str(self.deck_4.get(0))}'
if len(self.deck_5) == 0:
d_5 = '[ Empty ]'
else:
d_5 = f'{str(self.deck_5.get(0))}'
if len(self.deck_6) == 0:
d_6 = '[ Empty ]'
else:
d_6 = f'{str(self.deck_6.get(0))}'
if len(self.deck_1) == 7:
d_7 = '[ Empty ]'
else:
d_7 = f'{str(self.deck_7.get(1))}'
line_1 = f'[ Draw ] {discard_1} {found_1} {found_2} {found_3} {found_4}'
line_2 = f' {discard_2}'
line_3 = f' {discard_3}'
line_4 = f'{d_1} {d_2} {d_3} {d_4} {d_5} {d_6} {d_7}'
lines_end = []
for i in range(max_len - 1):
line = ''
for j in [
self.deck_1, self.deck_2, self.deck_3, self.deck_4,
self.deck_5, self.deck_6, self.deck_7
]:
if len(j) >= i + 2:
line += f'{str(j.get(i+1))} '
else:
line += ' '
lines_end.append(line)
lines = [line_1, line_2, line_3, line_4, *lines_end]
return '\n'.join(lines)
class PicturesApp(App):
conn = client_connection()
card_database = card_database_creation()
card_reader = cv_card_reader()
table = None
deck = None
def check_resize(self, instance, x, y):
print("resize", x, y)
self.table.bounding_boxes['hand'].set_box(
[int(x * 0.5), int(50)],
[int(x), int(y * 0.2)],
)
self.table.bounding_boxes['mana_cards'].set_box(
[int(0), int(50)], [int(x * 0.5), int(y * 0.2)])
self.table.bounding_boxes['monsters_cards'].set_box(
[int(0), int(y * 0.2)], [int(x), int(y * 0.4)])
self.table.bounding_boxes['attacking_cards'].set_box(
[int(0), int(y * 0.4)], [int(x), int(y * 0.6)])
self.current_width = x
self.current_height = y
self.table.update_opponent_bounding_boxes()
self.table.animate_all_cards()
# self.root.canvas.ask_update()
self.event_loop = []
def wrapper_create_card(self, name):
if not isinstance(name, str): name = name.text
card_id = self.create_card(name)
self.table.move_card(card_id, 'hand', [Window.width, Window.height])
def wrapper_send_message(self, name):
self.conn.writer_tcp(name.text)
def wrapper_create_card_from_camera(self, event):
name = self.card_reader.grab_text()
card_id = self.create_card(name)
self.table.move_card(card_id, 'hand', [Window.width, Window.height])
def create_onepone(self, event=None):
opo = Picture(source='opo.png')
self.root.add_widget(opo)
def create_card(self, name, summon_position=None, assigned_id=None):
# card = card_creation(self.card_database, name)
return self.table.create_card(name=name,
summon_position=None,
assigned_id=None)
def app_func(self):
async def run_wrapper():
await self.async_run()
print('App done')
self.card_reader.close()
self.other_task.cancel()
return asyncio.gather(run_wrapper(), self.client_connection())
def deck_next_card(self, event):
if self.deck is None:
self.deck = Deck()
for i in self.deck.load_hand():
self.wrapper_create_card(i)
else:
self.wrapper_create_card(self.deck.load_card())
def build(self):
self.table = Table(self)
self.check_resize(None, Window.width, Window.height)
textinput = TextInput(text='Card Name', multiline=False)
textinput.bind(on_text_validate=self.wrapper_create_card)
chatclient = TextInput(text='Chat', multiline=False)
chatclient.bind(on_text_validate=self.wrapper_send_message)
button = Button(text='grab card from camera', font_size=14)
button.bind(on_press=self.wrapper_create_card_from_camera)
deck = Button(text='grab card from virtual decks', font_size=14)
deck.bind(on_press=self.deck_next_card)
layout = BoxLayout(size_hint=(1, None), height=50)
layout.add_widget(textinput)
layout.add_widget(chatclient)
layout.add_widget(button)
layout.add_widget(deck)
self.root.add_widget(layout)
buttonlayout = FloatLayout(size_hint=(None, None), height=50)
button_1p1 = Button(text="+1/+1",
pos_hint={
'center_x': 10,
'center_y': 10
},
size_hint=(None, None))
button_1p1.bind(on_press=self.create_onepone)
buttonlayout.add_widget(button_1p1)
Window.bind(on_resize=self.check_resize)
async def client_connection(self):
try:
await self.conn.establish_connection()
await asyncio.sleep(1)
async def connection():
await asyncio.sleep(1)
self.conn.writer_tcp('create_a_room mtg mtg')
await asyncio.sleep(1)
self.conn.writer_tcp('join_a_room mtg mtg')
await asyncio.sleep(1)
self.conn.writer_tcp('username mtg{}'.format(
random.getrandbits(10)))
await asyncio.sleep(1)
while True:
await asyncio.sleep(5)
self.table.broadcast_cards()
async def card_watcher():
while True:
if len(self.event_loop
) > 0 and self.event_loop[0][0] + 0.2 < time.time():
# [time.time(), 2, self.parent_object.current_width//2, self.parent_object.current_height//2, self]
animation = Animation(pos=(self.event_loop[0][2],
self.event_loop[0][3]),
t='out_back',
duration=0.25)
animation &= Animation(scale=self.event_loop[0][1],
t='in_out_cubic',
duration=0.25)
animation.start(self.event_loop[0][-1])
self.event_loop.pop(0)
await asyncio.sleep(0.1)
await asyncio.gather(connection(), card_watcher(),
self.conn.reader_tcp(self.incoming_message))
except asyncio.CancelledError as e:
pass
def incoming_message(self, message):
print(message)
text = " ".join(message.split(' ')[1:])
if text.startswith('create_a_card'):
self.create_card(" ".join(text.split(' ')[1:]))
if text.startswith('current_cards'):
self.table.opponent_update(
message.split(' ')[0][:-1], " ".join(text.split(' ')[1:]))
def test_missing_cards_from_main_deck(self):
test_collection = Collection(TEST_COLLECTION_NAME)
self.assertEqual(test_collection.size(), 0)
test_main_deck = []
empty_sideboard = []
CARDS_IN_MAIN_DECK = 25
ARBITRARY_NUMBER = 5 #must be less than CARDS_IN_MAIN_DECK
for x in range(0, CARDS_IN_MAIN_DECK):
quantity = random.randint(1, 4)
card = Card("card" + str(x), quantity)
test_main_deck.append(card)
test_deck = Deck(test_main_deck, empty_sideboard)
#an empty collection should be missing every card from a maindeck
cards_missing_from_main_deck = test_collection.missing_cards_from_main_deck(
test_deck)
#assert that return list is of equal length to deck
self.assertEqual(len(cards_missing_from_main_deck), CARDS_IN_MAIN_DECK)
index = 0
for card in cards_missing_from_main_deck:
#assert that return list has a list of cards equivalent to main deck
self.assertEqual(card.name, test_deck.main_deck[index].name)
self.assertEqual(card.quantity,
test_deck.main_deck[index].quantity)
index += 1
#a "full" collection should be missing no card from a maindeck
for x in range(0, CARDS_IN_MAIN_DECK + CARDS_IN_MAIN_DECK):
quantity = random.randint(4, 10)
card = Card("card" + str(x), quantity)
test_collection.add_card(card)
cards_missing_from_main_deck = test_collection.missing_cards_from_main_deck(
test_deck)
self.assertEqual(len(cards_missing_from_main_deck), 0)
#a "partially full" collection should be missing some cards from a maindeck
test_collection = Collection(TEST_COLLECTION_NAME)
self.assertEqual(test_collection.size(), 0)
for x in range(0, CARDS_IN_MAIN_DECK - ARBITRARY_NUMBER):
quantity = random.randint(0, 2)
name = "card" + str(x)
card = Card.query.filter_by(name=name).first()
user.add_card_to_collection(card, quantity)
cards_missing_from_main_deck = test_collection.missing_cards_from_main_deck(
test_deck)
index = 0
for card in test_deck.main_deck:
if not test_collection.cards.get(card.name):
self.assertEqual(cards_missing_from_main_deck[index].name,
card.name)
self.assertEqual(cards_missing_from_main_deck[index].quantity,
card.quantity)
index += 1
elif test_collection.cards.get(card.name) < card.quantity:
self.assertEqual(cards_missing_from_main_deck[index].name,
card.name)
self.assertEqual(
cards_missing_from_main_deck[index].quantity,
card.quantity - test_collection.cards.get(card.name))
index += 1
class GameServer(object):
'''
The ERS game server holds the state of a single game at a time.
Clients (players) can interact with the server but the server can
not interact with the clients.
'''
def __init__(self):
'''
Initializes the primary Egyptian Rat Screw objects which
hold the state of the game.
'''
self.players = defaultdict(lambda:defaultdict(deque))
self.locked = False
self.started = False
self.deck = Deck()
self.deck.generate_fresh_deck()
self.deck.shuffle_deck()
self.total_cards = self.deck.size()
self.pile = deque()
self.round = 0
self.round_history = []
self.player_list = []
self.slaps = []
self.round_result = ""
self.current_card = ""
self.winner = ""
self.current_flipper = ""
def get_locked_status(self):
''' Gets the status of the server and whether it is locked from additional players '''
return self.locked
def get_start_status(self):
''' Gets the start status of the game '''
return self.started
def get_players(self):
''' Gets the current players registered with the game server '''
return self.players.keys()
def get_round_number(self):
''' Gets the current round of the game '''
return self.round
def get_round_results(self):
''' Gets the results from the last round '''
return self.round_result
def get_winner(self):
''' Gets the winner of the game, if there is not one it returns an empty string '''
return self.winner
def get_round(self):
''' Gets the round number, the card flipped in that round, and the player who flipped it '''
return self.round, self.current_card, self.current_flipper
def reset_players_status(self):
''' Reset ready status of all players to not ready '''
for player in self.players.keys():
self.players[player]["ready"] = False
def slap_attempt(self, name, timestamp):
'''
Takes: itself, the name of the player making the slap attempt, the time stamp of said slap attempt
Returns: None, adds the slap attempt details to list of slap attempts for the current round
'''
self.slaps.append((name, timestamp))
def get_num_cards(self, name):
'''
Takes: itself, the name of a player in the game
Returns: the number of cards the input player currently has
'''
return len(self.players[name]["pile"])
@Pyro4.expose
def register_player(self, name):
'''
Takes: itself, name of player to register in the game
Returns: None, registers a player for the game
'''
if not self.locked: self.players[name]["ready"] = False
@Pyro4.expose
def quit_game(self, name):
'''
Takes: itself, name of player to be removed from the game
Returns: None, removes input player from game state
'''
self.players.pop(name, None)
def get_lobby_status(self):
'''
Takes: itself
Returns: ready status of players in the game lobby
'''
s = "\n\nLobby Status: \n"
# construct a string of those in the game lobby and their ready status
for player in self.players.keys():
if self.players[player]["ready"]: s += player + " is ready \n"
else: s += player + " is not ready \n"
return s
def players_ready(self):
'''
Takes: itself
Returns: boolean True if all players in the game are ready, False otherwise
'''
all_ready = True
for player in self.players.keys():
if not self.players[player]["ready"]: all_ready = False
return True if all_ready else False
@Pyro4.expose
def signal_ready(self, name):
'''
Takes: itself and the unique name of the player who is signaling readiness
Returns: None, signals that a player is ready for the game state
'''
self.players[name]["ready"] = True
# if everyone in the game agrees to move on to the next round and there are
# enough people to play go ahead and move to the next round
if len(self.players.keys()) > 1 and self.players_ready():
# if we haven't started the game yet we need to lock it, mark it as started,
# distribute the deck amongst the players, and get a copy of those playing
if not self.started:
self.started, self.locked = True, True
self.distribute_cards()
self.player_list = list(self.players.keys())
self.next_round()
def distribute_cards(self):
'''
Takes: itself
Returns: None, distributes the deck of cards among the players in the game state
'''
num_players = len(self.players.keys())
# distribute cards n at a time where n is the number of players and where |deck| - n > -1
while not self.deck.will_be_empty(num_players):
for player in self.players.keys():
self.players[player]["pile"].append(self.deck.take_top())
def next_round(self):
'''
Takes: itself
Returns: None, move on to the next round
'''
if self.players_ready():
# if we are just starting the round, we can move directly to it
if self.round == 0: self.new_round()
else:
# if all players are ready for a new round, we go ahead and employ their decisions by order of
# timestamp and move the game state to the next round
self.apply_round_results()
self.new_round()
def new_round(self):
'''
Takes: itself
Returns: None, moves the game state to a new round
'''
self.reset_players_status()
self.slaps = []
self.round += 1
turn = self.round % len(self.player_list)
# Since the official game rules state players without anymore cards can still play, remaining players
# must then accomodate by flipping their cards instead
if self.players[self.player_list[turn]]["pile"]: card = self.players[self.player_list[turn]]["pile"].pop()
else:
next_person = self.round
while True:
next_person += 1
turn = next_person % len(self.player_list)
# the first player to have a pile will need to flip
if self.players[self.player_list[turn]]["pile"]:
card = self.players[self.player_list[turn]]["pile"].pop()
break
# add to the pile, round histroy, and basic markers of the current round
self.round_history.append((self.player_list[turn], card))
self.current_card = str(card.get_value()) + " of " + str(card.get_suit())
self.current_flipper = self.player_list[turn]
self.pile.append(card)
def is_valid_slap(self):
'''
Takes: itself
Returns: boolean True or False of whether a slap in this round is valid
'''
r = self.round
if not self.pile: return False
# check if it is a slap on doubles
if r > 1 and self.round_history[r - 1][1].get_value() == self.round_history[r- 2][1].get_value(): return True
# check if it is a slap on sandwich
elif r > 2 and self.round_history[r - 1][1].get_value() == self.round_history[r - 3][1].get_value(): return True
# check if it is a slap on top bottom
elif r > 1 and self.round_history[0][1].get_value() == self.round_history[r - 1][1].get_value(): return True
# check if it is a slap on ascending or descending
elif r > 3 and self.is_ascending_or_descending(): return True
# otherwise we have a false slap
return False
def is_ascending_or_descending(self):
'''
Takes: itself
Returns: boolean True or False for whether the top 4 cards in the main pile are ascending or descending
'''
cards = ["2", "3", "4", "5", "6", "7", "8", "9", "10", "Jack", "Queen", "King", "Ace"]
# get the top 4 elements in the pile from the round history
top_card = self.round_history[self.round - 1][1].get_value()
second_card = self.round_history[self.round - 2][1].get_value()
third_card = self.round_history[self.round - 3][1].get_value()
fourth_card = self.round_history[self.round - 4][1].get_value()
card_list = [fourth_card, third_card, second_card, top_card]
ascending = True
descending = True
# now we simply iterate up the card list and see whether there is an increasing or decreasing pattern
for i in range(3):
if cards.index(card_list[i]) + 1 != cards.index(card_list[i+1]): ascending = False
if cards.index(card_list[i]) != cards.index(card_list[i+1]) - 1: descending = False
return ascending or descending
def apply_round_results(self):
'''
Takes: itself
Returns: None, applies the decisions made by players to the current round
'''
winner = ""
winning_reason = ""
losers = []
result = "\n\n"
# we first consider and prioritize whether there was a valid slap
if self.slaps and self.is_valid_slap():
# if there is a valid slap, we get the player who slapped early to resolution of millisecond
winner = min(self.slaps, key=lambda x:x[1])[0]
winning_reason = " for slapping first and correctly!!!"
# we also want to consider if someone has won the round by simply playing a face or ace card
elif self.round > 1 and (self.round_history[self.round - 2][1].is_face_or_ace()
and not self.round_history[self.round - 1][1].is_face_or_ace()):
winner = self.round_history[self.round - 2][0]
winning_reason = " for being the last to put down a face or ace!!!"
# otherwise punish anyone that slapped since they slapped incorrectly
else:
for slap in self.slaps:
losers.append(slap[0])
# remove 0-2 cards from each player, as much as is possible
if self.players[slap[0]]["pile"]: self.pile.appendleft(self.players[slap[0]]["pile"].pop())
if self.players[slap[0]]["pile"]: self.pile.appendleft(self.players[slap[0]]["pile"].pop())
# if there is a winner we give that winner all the cards in the main pile and shuffle the newly merged pile
if winner:
self.players[winner]["pile"].extend(self.pile)
random.shuffle(self.players[winner]["pile"])
self.pile = deque()
result += "The winner of this round is " + winner + winning_reason + "\n"
# otherwise we can see if there were any losers in that round who slapped incorrectly
else:
for loser in losers:
result += loser + " slapped incorrectly and lost 2 cards or whatever was remaining\n"
self.round_result = result
# if there is a winner because of this round make note of it in the game state so when the client
# next polls the game can end with a winner
self.check_winner()
def check_winner(self):
'''
Takes: itself
Returns: None, sets a winner in the game state if there exists a winner
'''
for player in self.players.keys():
if len(self.players[player]["pile"]) == self.total_cards:
self.winner = player
class Table:
TIME_FORMAT = '%Y-%m-%d %H:%M:%S'
# will remove player if he or she hasn't played in time limit
PLAYER_TURN_LIMIT = 30
def __init__(self,
players=None,
deck=None,
pot=0,
cards=None,
tableId=None,
blind=2,
currentBet=0,
statusId=None,
winners=None,
updateTs=None):
self.players = players if players is not None else []
if deck is not None:
self.deck = deck
else:
self.deck = Deck()
self.deck.shuffle()
self.pot = pot
self.cards = cards if cards is not None else []
self.tableId = tableId if tableId is not None else str(uuid.uuid4())
self.blind = blind
self.currentBet = currentBet
## Any table change should update the status id this can then be used to determine if there has been a change on the table
self.statusId = statusId if statusId is not None else 0
self.winners = winners if winners is not None else []
self.updateTs = updateTs
def resetTable(self):
self.players = []
self.deck = None
self.pot = 0
self.cards = None
self.blind = 2
self.currentBet = 0
self.statusId = 0
self.winners = None
self.updateTs = None
logger.warn(" Table successfully reset values")
def setDealerAtRandom(self):
playerIndex = randint(0, len(self.players) - 1)
logger.debug("Dealer Selected")
self.setDealerPosition(playerIndex)
self.statusId = self.statusId + 1
def setDealerPosition(self, playerIndxForDealer):
'''
Set the position of the dealer. Player that is dealer will be in index 0 of the array of players.
'''
self.players[playerIndxForDealer].dealer = True
logger.info(' {0} is dealer.'.format(
self.players[playerIndxForDealer].name))
resetPlayers = []
### set dealer to index 0
for index in range(len(self.players)):
nextPlayer = playerIndxForDealer + index
if nextPlayer >= len(self.players):
nextPlayer = nextPlayer - len(self.players)
player = self.players[nextPlayer]
player.dealer = playerIndxForDealer == nextPlayer
resetPlayers.append(player)
logger.info('player ' + self.players[nextPlayer].name +
' is position ' + str(index))
self.players = resetPlayers
self.setBlinds()
self.statusId = self.statusId + 1
def dealPlayer(self, playerIndex):
player = self.players[playerIndex]
if len(player.hand.cards) >= 2:
logger.warn(
' dealPlayer called for player {0}, id {1}, the request was ignored because player has 2 or more cards'
.format(player.name, player.playerId))
return
card = self.deck.deal()
logger.info(' {0} received a {1}'.format(player.name, card))
player.hand.cards.append(card)
self.statusId = self.statusId + 1
def dealToTable(self, cardCount):
for _ in range(cardCount):
card = self.deck.deal()
self.cards.append(card)
logger.info(' Table received a {0}'.format(card))
logger.info(' Table cards: {0}'.format(self.showHand()))
self.statusId = self.statusId + 1
def playerBetOrCall(self, player, chips):
logger.info('in bet or call recalling...' + str(player) + " " +
str(chips) + " ")
self.playerBetOrCallByIndex(self.players.index(player), chips)
def playerBetOrCallByIndex(self, playerIndex, chips):
logger.info('in bet or call')
player = self.players[playerIndex]
player.currentBet = player.currentBet + chips
logger.info(
' {0} bets {1} chip(s), for a total of {2} this round'.format(
player.name, chips, player.currentBet))
if player.folded:
logger.warn(
"Player asked to bet or call, but is folded, bet will not be made"
)
return
logger.info('in bet or call 2')
player.chips = player.chips - chips
player.currentAction = PlayerAction.CALL_CHECK_RAISE
self.pot = self.pot + chips
self.currentBet = player.currentBet
logger.info(
' Sets table pot to {0} and current call amount for this round to {1}'
.format(self.pot, self.currentBet))
self.setNextPlayerTurn(player)
logger.info('in bet or call done')
self.statusId = self.statusId + 1
def playerCheck(self, player):
self.playerCheckByIndex(self.players.index(player))
def playerCheckByIndex(self, playerIndex):
player = self.players[playerIndex]
logger.info(' {0} checks'.format(player.name))
if player.currentBet < self.currentBet:
raise ValueError('Cannot check without meeting the current bet')
if player.folded:
logger.warn(player.name +
" asked to check, but is folded, bet will not be made")
return
player.currentAction = PlayerAction.CALL_CHECK_RAISE
self.setNextPlayerTurn(player)
self.statusId = self.statusId + 1
def setNextPlayerTurn(self, player):
logger.info("Setting turn for player after {0}".format(player.name))
for p in self.players:
p.turn = False
p.turnStartTime = None
if self.isRoundComplete():
pass
else:
playerIndex = self.players.index(player)
nextPlayerIndex = self.getNextPlayerIndex(playerIndex)
while self.players[nextPlayerIndex].folded:
nextPlayerIndex = self.getNextPlayerIndex(nextPlayerIndex)
self.players[nextPlayerIndex].turn = True
self.players[nextPlayerIndex].turnStartTime = datetime.now(
).strftime(self.TIME_FORMAT)
logger.info("Setting {0}'s turn".format(
self.players[nextPlayerIndex].name))
def getNextPlayerIndex(self, playerIndex):
playerIndex = playerIndex + 1
if (playerIndex == len(self.players)):
playerIndex = 0
return playerIndex
def playerFold(self, player):
self.playerFoldByIndex(self.players.index(player))
def playerFoldByIndex(self, playerIndex):
player = self.players[playerIndex]
player.folded = True
logger.info(
' {0} folds, player has a total of {1} chips bet this round'.
format(player.name, player.currentBet))
self.setNextPlayerTurn(player)
self.statusId = self.statusId + 1
def prepareForNextHand(self):
'''
Next dealer, reset pot, shuffle a new deck reset players
'''
logger.info("Table is preparing for next hand")
self.prepareForNextRound()
self.deck = Deck()
self.deck.shuffle()
self.pot = 0
self.cards = []
self.winners = []
indexOfDealer = 0
for playerIndex, player in enumerate(self.players):
player.hand.cards = []
player.folded = False
player.isInformedHandComplete = False
if player.dealer:
indexOfDealer = self.getNextPlayerIndex(playerIndex)
self.setDealerPosition(indexOfDealer)
self.statusId = self.statusId + 1
def prepareForNextRound(self):
'''
Reset players for the next round of betting
'''
logger.info("Table is preparing for next round")
for player in (self.players):
player.currentBet = 0
player.currentAction = PlayerAction.NONE
self.currentBet = 0
self.statusId = self.statusId + 1
self.setNextPlayerTurn(self.players[0]) # dealer is index 0
def addPlayer(self, player):
for existingPlayer in self.players:
if existingPlayer.playerId == player.playerId:
#raise ValueError(" Cannot add player to table as player is already at table.")
return
if self.isPlayActive():
player.folded = True
self.players.append(player)
self.statusId = self.statusId + 1
def isRoundComplete(self):
'''
Check to see that all bets are completed for the round of betting and players notified of winners
'''
for player in self.players:
if player.currentAction == PlayerAction.NONE and not player.folded:
return False
if player.currentAction == PlayerAction.CALL_CHECK_RAISE and player.currentBet < self.currentBet and not player.folded:
return False
return True
def isHandComplete(self):
if self.isRoundComplete():
if len(self.cards) == 5:
return True
if self.haveAllButOnePlayerFolded():
return True
if len(self.players()) <= 1:
return True
return False
def addPlayers(self, players):
for player in players:
self.addPlayer(player)
def removePlayer(self, player):
if player in self.players:
if player.dealer:
indexOfDealer = self.getNextPlayerIndex(
self.players.index(player))
self.setDealerPosition(self.getNextPlayerIndex(indexOfDealer))
elif player.turn:
self.setNextPlayerTurn(player)
self.players.remove(player)
self.statusId = self.statusId + 1
def removePlayerById(self, playerId):
for player in self.players:
if player.playerId == playerId:
self.removePlayer(player)
def setBlinds(self):
'''
Set blinds or bets before table cards or betting.
Must have dealer set before this is called. Dealer will be index [0]
'''
firstBlindIndex = 1
secondBlindIndex = self.getNextPlayerIndex(1)
self.playerBetOrCallByIndex(firstBlindIndex, int(self.blind / 2))
self.playerBetOrCallByIndex(secondBlindIndex, self.blind)
# since this is blind, give the player a chance to call
self.players[firstBlindIndex].currentAction = PlayerAction.NONE
self.players[secondBlindIndex].currentAction = PlayerAction.NONE
self.setNextPlayerTurn(self.players[secondBlindIndex])
logger.info(
' Blinds set, {0} is low at {1} chip(s) and {2} high with {3} chips '
.format(self.players[firstBlindIndex].name, int(self.blind / 2),
self.players[secondBlindIndex].name, self.blind))
def dealRound(self):
numberOfPlayers = len(self.players)
for playerIndex in range(1, numberOfPlayers + 1):
if playerIndex >= numberOfPlayers:
playerIndex = 0
self.dealPlayer(playerIndex)
self.statusId = self.statusId + 1
def doAllPlayersHaveTwoCards(self):
for player in self.players:
if len(player.hand.cards) < 2:
return False
return True
def showHand(self):
myCards = "Table : "
if len(self.cards) == 0:
myCards += " No cards"
else:
for card in self.cards[:-1]:
myCards += str(card)
myCards += ", "
myCards += str(self.cards[-1])
return myCards
def hasDealer(self):
for player in self.players:
if player.dealer:
return True
return False
def findPlayerById(self, playerId):
for player in self.players:
if playerId == player.playerId:
return player
return None
def isPlayActive(self):
for player in self.players:
if len(player.hand.cards) < 0:
return True
if self.pot != 0:
return True
if len(self.cards) > 0:
return True
return False
def allPlayersKnowHandIsComplete(self):
for player in self.players:
if not player.folded and not player.isInformedHandComplete:
return False
return True
def haveAllButOnePlayerFolded(self):
countOfPlayers = 0
for player in self.players:
if not player.folded:
countOfPlayers = countOfPlayers + 1
if countOfPlayers > 1:
return False
return True
def __init__(self, name="Player"):
"""Sets up the player's draw deck and discard deck. """
self.name = name
self.drawPile = Deck()
self.discardPile = Deck()
class Game(object):
"""Represents an entire game of cribbage between two players. A game consists
of as many rounds as needed for one player to exceed the final score of 121.
"""
WINNING_SCORE = 121
def __init__(self):
super(Game, self).__init__()
self.deck = Deck()
self.score = dict.fromkeys(['p1', 'p2'], 0) # Should this be a view?
self.history = OrderedDict()
self.winner = True in [self.score[p] >= 121 for p in self.score.keys()]
def run(self):
'''Simulate a cribbage game, playing rounds until one player reaches the
winning score of 121 points.
'''
round_num = 1
while (self.score['p1'] < 121) and (self.score['p2'] < 121):
print('Round: {}'.format(round_num))
# Play a round
round = self.round(round_num)
for p in self.score.keys():
self.score[p] += round[p]['score']
self.history[round_num] = round
round_num += 1
print(self.winner)
def round(self, round_num):
'''Plays a single round of cribbage. Deals two hands, discards to the
crib, scores hands (and crib), and update the score for each player.
TODO:
Pegging
'''
round = {
'p1': {
'hand': [], 'score': 0, 'brkdwn': None, 'crib': False
},
'p2': {
'hand': [], 'score': 0, 'brkdwn': None, 'crib': False
},
'starter': None
}
if round_num % 2 == 0:
round['p2']['crib'] = True
else:
round['p1']['crib'] = True
# Shuffle deck of cards and deal two hands
self.deck.shuffle()
p1_hand, p2_hand, crib = Hand(), Hand(), Hand()
self.deal(p1_hand, p2_hand)
# Discard phase...send two cards to crib
self.the_discard(p1_hand, p2_hand, crib)
round['p1']['hand'] = p1_hand
round['p2']['hand'] = p2_hand
# Cut deck and reveal the starter
self.deck.cut()
starter = self.deck[0]
round['starter'] = starter
p1_hand.cards.append(starter)
p2_hand.cards.append(starter)
# The show
self.the_play(p1_hand, p2_hand)
# Save round to game history and update total score
p1_score = self.score_hand(p1_hand)
round['p1']['score'] += p1_score[0]
round['p1']['brkdwn'] = p1_score[1]
p2_score = self.score_hand(p2_hand)
round['p2']['score'] += p2_score[0]
round['p2']['brkdwn'] = p2_score[1]
for p in ['p1', 'p2']:
if round[p]['crib'] == True:
round[p]['score'] += self.score_hand(crib)[0]
# Return all cards to deck
for hand in [p1_hand, p2_hand, crib]:
self.deck.return_hand(hand)
return round
def score_hand(self, hand):
'''Given a Hand(), return a list with the total points score for the
hand and a dict containing the breakdown by scoring category:
score = [num_score, {breakdown}]
FIFTEENS: 2 pts per combo totalling 15
PAIRS: 2 pts per pair of same rank
RUNS: 1 pt per card in run of 3+
FLUSH: 4 pts for four of same suit in hand
HIS NOBS: 1 pt for jack matching suit of starter
'''
ev = Evaluator(hand)
breakdown = {
'fifteens': 2 * len(ev.fifteens()),
'pairs': 2 * len(ev.pairs()),
'runs': sum([len(r) for r in ev.runs()]),
'flush': 0,
'nobs': 0
}
if ev.flush():
breakdown['flush'] += 4
num_score = sum([breakdown[key] for key in breakdown.keys()])
return [num_score, breakdown]
def deal(self, p1_hand, p2_hand):
'''Deal six cards to each hand from the top of the deck, alternating
between each player as you would deal cards in real life.'''
for i in range(1,13):
if i % 2 == 0:
p1_hand.add(self.deck.draw())
else:
p2_hand.add(self.deck.draw())
return
def the_discard(self, p1_hand, p2_hand, crib):
'''Each player looks at his six cards and discards two of them to the
crib. Choose the two cards that result in the highest score for the
remaining four cards.
TODO:
>>Adjust discard strategy according to which player is currently the
dealer (has the crib).
>>Weight and apply various discard strategies.
'''
for hand in [p1_hand, p2_hand]:
ev = Evaluator(hand)
discard_results = []
# check each 2 card combination
for combo in itertools.combinations(hand.cards, 2):
test_hand = Hand()
test_hand.cards = [card for card in hand.cards if card not in combo]
result = [ev.score()[0], combo]
discard_results.append(result)
discard_results.sort(key = lambda x: x[0], reverse = True)
for card in discard_results[0][1]:
index = hand.cards.index(card)
crib.add(hand.cards.pop(index))
return
def the_play(self, p1_hand, p2_hand):
'''The non-dealer (aka "pone") shows a card to begin the play and the
dealer follows accordingly. The goal is to achieve running totals of 15
and 31.
If a player is unable to add a card without exceeding 31, he says "go"
and his opponent "pegs" 1 point.
** This requires that information about who is currently the dealer gets
passed into the function
'''
play_score = [0, 0]
ranks = sorted(p1_hand.ranks()), sorted(p2_hand.ranks())
# run until there are no cards in either hand
total = 0
while len(ranks[0]) > 0 or len(ranks[1]) > 0:
for i in ranks:
if len(i) > 0:
if ranks.index(i) == 0:
print('Player 1 Cards: {}'.format(i))
else:
print('Player 2 Cards: {}'.format(i))
if total + i[0] <= 31:
# Check each card against the total. If equals 15 or 31,
# choose that card
total += i[0]
print(i[0])
print('Total: {}'.format(total))
del i[0]
if total == 15:
play_score[ranks.index(i)] += 2
print('Fifteen for two.')
elif total == 31:
print('Total: {}'.format(total))
print('Thirty-one for two.')
else:
total = 0
print(play_score)
return
def the_show(self):
'''Game phase where each player scores their five cards (hand + starter)
class Player:
"""Represents a player in a card game. When the player
draws cards, she will draw from her draw deck. When the draw deck runs
out, the discard pile will be shuffled into the draw deck.
When the player takes cards, they will go into the discard deck."""
def __init__(self, name="Player"):
"""Sets up the player's draw deck and discard deck. """
self.name = name
self.drawPile = Deck()
self.discardPile = Deck()
def has_any_cards(self):
"""returns True if the player has any cards in either the draw or
the discard deck. Otherwise returns False."""
return not (self.drawPile.empty() or self.discardPile.empty())
def take_card(self, card):
"Adds the card to the discard deck"
self.discardPile.add(card)
def take_deck(self, deck):
"Adds the deck to the discard pile"
self.discardPile.add_deck(deck)
def draw_card(self):
"""Draws (and returns) a card from the draw pile if possible. If not,
shuffles the discard pile into the draw pile. If there are still no
cards, returns None."""
if self.drawPile.empty():
self.shuffle_in_discard_pile()
if self.drawPile.empty():
return None
return self.drawPile.draw()
def shuffle_discard_deck_into_draw_deck(self):
"""Adds the discard deck to the draw deck and then shuffles the draw
deck. No return value"""
self.drawPile.add_deck(self.discardPile)
self.drawPile.shuffle()
def __init__(self, hand = Deck()) -> None:
self.hand = hand
self.playing = True
self.score = [0,0]
self.player = 'Player'
class Game:
def __init__(self):
"""
__init__(): show the rules and initialize the game settings
"""
# Show the logo during setup
settings.mainscreen.bkgd(' ', curses.color_pair(1))
settings.scoreboard.addstr(0, 0, settings.buildLogo())
settings.scoreboard.refresh()
# Show the instuctions
settings.mainscreen.addstr(
1, 2,
'🏌 The objective is to get the lowest score over all rounds.')
settings.mainscreen.addstr(
3, 2,
'🏌 Each player starts each round with 6 face-down cards, and flips over 2'
)
settings.mainscreen.addstr(4, 2, ' during their first turn.')
settings.mainscreen.addstr(
6, 2,
'🏌 During each turn, players draw a card from the discard or stock stack. This card '
)
settings.mainscreen.addstr(
7, 2,
' can either be swapped with one of the six from the player’s hand or discarded.'
)
settings.mainscreen.addstr(
9, 2, '🏌 The round ends when one player’s cards are all face up.')
settings.mainscreen.addstr(
11, 2,
'🏌 The game ends when all rounds are over or [ctrl-c] is pressed')
settings.mainscreen.addstr(
13, 2,
'┌───────┬────────┬───────────────────┬────────────┬───────┐')
settings.mainscreen.addstr(
14, 2,
'│ A = 1 │ 2 = -2 │ 3-10 = Face Value │ Q & J = 10 │ K = 0 │')
settings.mainscreen.addstr(
15, 2,
'└───────┴────────┴───────────────────┴────────────┴───────┘')
settings.mainscreen.addstr(17, 31, '[ Press any key to begin ]',
curses.color_pair(4))
start = settings.mainscreen.getch() # Wait for feedback
# Initialize number of players
settings.mainscreen.clear()
self.numPlayers = -1
while (self.numPlayers < 2 or self.numPlayers > 4):
settings.mainscreen.addstr(2, 2,
"How many people are playing? [2-4]: ")
self.numPlayers = settings.mainscreen.getch() - 48
if (self.numPlayers < 2 or self.numPlayers > 4):
settings.mainscreen.addstr(
3, 2, "Please enter a number between 2 and 4")
# Initialize number of rounds
self.numRounds = -1
settings.mainscreen.clear()
while (self.numRounds < 1 or self.numRounds > 9):
settings.mainscreen.addstr(
2, 2, "How many rounds would you like to play? [1-9]: ")
self.numRounds = settings.mainscreen.getch() - 48
if (self.numRounds < 1 or self.numRounds > 9):
settings.mainscreen.addstr(
3, 2, "Please enter a number between 1 and 9")
curses.curs_set(0)
# Hide the cursor
# Start game from scratch
self.scores = [0] * self.numPlayers
self.prevScores = [0] * self.numPlayers
self.curPlayer = 1
self.curRound = 0
self.curTurn = 0
self.roundFinished = False
# Prepare the screen for gameplay
settings.mainscreen.clear()
# Hide the logo if the terminal is not wide enough to fit it
if (curses.COLS < 100): settings.scoreboard.clear()
def buildScoreboard(self):
"""
buildScoreboard(): Updates the scoreboard on the left of scoreboard screen
"""
scoreboardText = []
line = 0
# Upper Border
settings.scoreboard.addstr(
line, 0, ' ┌────────' + ('┬─────' * self.numPlayers) + '┐')
line += 1
# Middle Rows
for i in range(2):
# Row label
row = ' │ ' + ('Player │ ' if i == 0 else ' Score │ ')
# Row content
for j in range(self.numPlayers):
row += '{:^3d}'.format(
(j + 1) if i == 0 else self.scores[j]) + ' │ '
# Display row
settings.scoreboard.addstr(line, 0, row)
line += 1
# Middle Border
settings.scoreboard.addstr(
line, 0, ' ├────────' + ('┼─────' * self.numPlayers) + '┤')
line += 1
# Bottom Border
settings.scoreboard.addstr(
line - 1, 0, ' └────────' + ('┴─────' * self.numPlayers) + '┘')
# Show the scoreboard
settings.scoreboard.refresh()
def buildRoundStatus(self):
"""
buildRoundStatus(): Updates the counter on the right of scoreboard screen
"""
roundIndicator = [('_', '🏌️')[round == self.curRound]
for round in range(1, self.numRounds + 1)]
roundStatus = '│ Round ' + str(
self.curRound) + ': ' + ' '.join(roundIndicator) + ' │'
playerStatus = ' P' + str(self.curPlayer) + '\'s turn!'
boxWidth = len(roundStatus)
x = curses.COLS - boxWidth - 1
settings.scoreboard.addstr(0, x, '┌' + ('─' * (boxWidth - 3)) + '┐')
settings.scoreboard.addstr(1, x, roundStatus)
settings.scoreboard.addstr(2, x, '│' + (' ' * (boxWidth - 3)) + '│')
settings.scoreboard.addstr(
3, x, '│' + playerStatus + (' ' * (boxWidth - 14)) + '│')
settings.scoreboard.addstr(4, x, '└' + ('─' * (boxWidth - 3)) + '┘')
settings.scoreboard.refresh()
def showHand(self):
"""
showHand(): display the current players hand, as well as discard and draw piles
"""
# Show the deck and discard pile
if (len(self.deck.cards) > 0):
settings.displayCard(1, 48, self.deck.cards[-1], "[7] Draw")
if (len(self.discard.cards) > 0):
settings.displayCard(1, 62, self.discard.cards[-1], "[8] Discard")
# Print the Player's Hand
i = 0
for row in range(2):
for col in range(3):
settings.displayCard((row * 9) + 1, (col * 14) + 1,
self.hands[self.curPlayer - 1].cards[i],
'[' + str(i + 1) + ']')
i += 1
def calculateScores(self):
"""
calculateScores(): updated the self.scores for the current player
"""
# For the current player
playerHand = self.hands[self.curPlayer - 1]
# The current tally for this round, which will change every turn.
# Therefore it is not cemented until the end of the round
curScore = 0
# Matching columns count as 0 points
for col in range(3):
topCard = playerHand.cards[col]
bottomCard = playerHand.cards[col + 3]
if ((topCard.faceUp and bottomCard.faceUp)
and (topCard.value == bottomCard.value)):
continue
else:
for card in [topCard, bottomCard]:
if (card.faceUp):
if (card.value == 2):
curScore -= 2
elif (card.value == 11 or card.value == 12):
curScore += 10
elif (card.value != 13):
curScore += card.value
# Update current total score, including previous rounds
self.scores[self.curPlayer -
1] = curScore + self.prevScores[self.curPlayer - 1]
self.buildScoreboard()
def takeTurn(self):
"""
TakeTurn(): One player takes a turn in a round
There are three turn behaviors: first turn, normal turn, and last turn
"""
# Update the Screen
settings.mainscreen.clear()
self.buildRoundStatus()
self.showHand()
# Print the current player
settings.mainscreen.addstr(11, 48,
'Player ' + str(self.curPlayer) + ':',
curses.color_pair(2))
# Check if this is the player's first turn
if (self.curTurn < self.numPlayers):
settings.mainscreen.addstr(12, 48, 'This is your first turn!',
curses.color_pair(2))
settings.mainscreen.addstr(14, 48, 'Choose two cards [1-6]',
curses.color_pair(2))
settings.mainscreen.addstr(15, 48, 'to flip over.',
curses.color_pair(2))
settings.mainscreen.refresh()
# Let the player decide which 2 cards to flip
for i in range(2):
move = -1
validInput = False
while not validInput:
move = settings.mainscreen.getch() - 48
curses.flushinp()
if (move < 1 or move > 6):
settings.mainscreen.addstr(17, 48, 'Press [1-6]',
curses.color_pair(4))
else:
if not (self.hands[self.curPlayer -
1].cards[move - 1].faceUp):
self.hands[self.curPlayer - 1].cards[move -
1].flipUp()
validInput = True
self.showHand()
# Take a normal turn
else:
settings.mainscreen.addstr(13, 48, 'Draw from pile',
curses.color_pair(2))
settings.mainscreen.addstr(14, 48, '[7] or [8]',
curses.color_pair(2))
# Warn the player if it is their last turn
if (self.roundFinished):
settings.mainscreen.addstr(16, 48, 'You have one last turn',
curses.color_pair(4))
settings.mainscreen.addstr(17, 48,
'before your cards are flipped!',
curses.color_pair(4))
settings.mainscreen.refresh()
# Let the player decide where to draw from
drawFrom = None
validInput = False
while not validInput:
drawFrom = settings.mainscreen.getch() - 48
curses.flushinp()
if (drawFrom == 7):
# Draw top card of draw pile
self.deck.cards[-1].flipUp()
self.showHand()
settings.mainscreen.addstr(9, 48, '[7]',
curses.color_pair(4))
validInput = True
elif (drawFrom == 8):
# Draw top card of discard pile
settings.mainscreen.addstr(9, 62, '[8]',
curses.color_pair(4))
validInput = True
else:
# Invalid Input
settings.mainscreen.addstr(17, 48, 'Press [7] or [8]',
curses.color_pair(4))
# Let the player decide where to place the drawn card
settings.mainscreen.addstr(11, 48,
'Player ' + str(self.curPlayer) + ':',
curses.color_pair(2))
settings.mainscreen.addstr(13, 48, 'Swap with a card [1-6]',
curses.color_pair(2))
settings.mainscreen.addstr(14, 48, 'or choose discard [8]',
curses.color_pair(2))
putCard = None
validInput = False
while not validInput:
putCard = settings.mainscreen.getch() - 48
curses.flushinp()
if (putCard == 8):
# Put the card in the discard pile
if (drawFrom == 7):
# Move from Drawn to Discard
drawnCard = self.deck.cards.pop()
self.discard.addCard(drawnCard)
# Otherwise leave in discard
validInput = True
elif (putCard >= 1 and putCard <= 6):
# Swap with card [putCard-1]
toDiscard = self.hands[self.curPlayer -
1].cards.pop(putCard - 1)
toDiscard.flipUp()
if (drawFrom == 7):
# Draw top card of draw pile
drawnCard = self.deck.cards.pop()
else:
# Draw top card of discard
drawnCard = self.discard.cards.pop()
# Perform the swap
self.hands[self.curPlayer - 1].cards.insert(
putCard - 1, drawnCard)
self.discard.addCard(toDiscard)
validInput = True
else:
# Invalid Input
settings.mainscreen.addstr(17, 48, 'Invalid input',
curses.color_pair(4))
if (self.roundFinished):
# Flip up remaining cards if round is finished
for card in self.hands[self.curPlayer - 1].cards:
if not (card.faceUp): card.flipUp()
# Calculate scores
self.showHand()
self.calculateScores()
# Give players a chance to see their hand on the last round
if (self.roundFinished): time.sleep(1)
# Increment the turn counter
time.sleep(1)
self.curTurn += 1
# Move to the next player
self.curPlayer += 1
if (self.curPlayer > self.numPlayers):
self.curPlayer = 1
def playGolf(self):
"""
playGolf(): play a full game of golf
"""
self.buildScoreboard()
# For each round
for round in range(self.numRounds):
self.roundFinished = False # Flag for when all cards are flipped
self.prevScores = self.scores.copy(
) # Update based on final scores of previous round
self.curRound = round + 1 # Label of current round
self.curTurn = 0 # The turn within the round
# Initialize a full deck
self.deck = Deck()
self.deck.fillDeck()
self.deck.shuffle()
# Deal each player 6 cards
self.hands = []
for i in range(self.numPlayers):
curHand = Deck()
for c in range(6):
curHand.addCard(self.deck.drawCard())
self.hands.append(curHand)
# Add one card from draw pile to the discard pile
self.discard = Deck()
self.discard.addCard(self.deck.drawCard())
self.discard.cards[0].flipUp()
# Each player can take turns moving
# Until one player has all 6 cards face up
while not self.roundFinished:
# One player takes a turn
self.takeTurn()
# End the round if the previous player has flipped all their cards
numFaceUp = len([
c for c in self.hands[self.curPlayer - 2].cards if c.faceUp
])
if (numFaceUp == 6):
self.roundFinished = True
# Let each player play one more turn
for p in range(self.numPlayers - 1):
self.takeTurn()
# Announce the winner of the round
settings.mainscreen.clear()
roundScores = [
self.scores[i] - self.prevScores[i]
for i in range(len(self.scores))
]
# Check for ties
if (len(roundScores) != len(set(roundScores))):
winner = 'There was a tie in'
else:
winnerId = roundScores.index(min(roundScores)) + 1
winner = 'Player ' + str(winnerId) + ' is the winner of'
settings.mainscreen.addstr(2, 0, winner.center(curses.COLS - 1))
settings.mainscreen.addstr(3, 0, ('Round #' + str(self.curRound) +
' of').center(curses.COLS - 1))
settings.mainscreen.addstr(5, 0, settings.buildLogo())
settings.mainscreen.addstr(17, 31, '[ Press any key to continue ]',
curses.color_pair(4))
settings.mainscreen.refresh()
start = settings.mainscreen.getch() # Wait for feeback
# Announce the winner of the game
settings.mainscreen.clear()
# Check for ties
if (len(self.scores) != len(set(self.scores))):
winner = 'There was a tie for this game of'
else:
winner = 'Player ' + str(self.scores.index(min(self.scores)) +
1) + ' is the winner of'
settings.mainscreen.addstr(2, 0, winner.center(curses.COLS - 1))
settings.mainscreen.addstr(5, 0, settings.buildLogo())
settings.mainscreen.addstr(17, 31, '[ Press any key to continue ]',
curses.color_pair(1))
settings.mainscreen.bkgd(' ', curses.color_pair(4))
settings.mainscreen.refresh()
start = settings.mainscreen.getch() # Wait for feeback
# Clean for next game
settings.mainscreen.clear()
import random
from deck import Deck
from functions_for_algorythm import MiniMax, choose_strategy, get_points
from player import Player
import time
deck = Deck()
deck.deck_shuffle()
player1 = Player("player 1", hand=deck.draw(10), turn=True)
player2 = Player("player 2", hand=deck.draw(10))
player3 = Player("player 3", hand=deck.draw(10))
player4 = Player("player 4", hand=deck.draw(10))
player5 = Player("player 5", hand=deck.draw(10))
minimax = MiniMax(deck, [player1, player2, player3, player4, player5])
choose_strategy(player1)
choose_strategy(player2)
choose_strategy(player3)
choose_strategy(player4)
choose_strategy(player5)
player1.hand.sort()
player2.hand.sort()
player3.hand.sort()
player4.hand.sort()
player5.hand.sort()
for player in minimax.players:
def playGolf(self):
"""
playGolf(): play a full game of golf
"""
self.buildScoreboard()
# For each round
for round in range(self.numRounds):
self.roundFinished = False # Flag for when all cards are flipped
self.prevScores = self.scores.copy(
) # Update based on final scores of previous round
self.curRound = round + 1 # Label of current round
self.curTurn = 0 # The turn within the round
# Initialize a full deck
self.deck = Deck()
self.deck.fillDeck()
self.deck.shuffle()
# Deal each player 6 cards
self.hands = []
for i in range(self.numPlayers):
curHand = Deck()
for c in range(6):
curHand.addCard(self.deck.drawCard())
self.hands.append(curHand)
# Add one card from draw pile to the discard pile
self.discard = Deck()
self.discard.addCard(self.deck.drawCard())
self.discard.cards[0].flipUp()
# Each player can take turns moving
# Until one player has all 6 cards face up
while not self.roundFinished:
# One player takes a turn
self.takeTurn()
# End the round if the previous player has flipped all their cards
numFaceUp = len([
c for c in self.hands[self.curPlayer - 2].cards if c.faceUp
])
if (numFaceUp == 6):
self.roundFinished = True
# Let each player play one more turn
for p in range(self.numPlayers - 1):
self.takeTurn()
# Announce the winner of the round
settings.mainscreen.clear()
roundScores = [
self.scores[i] - self.prevScores[i]
for i in range(len(self.scores))
]
# Check for ties
if (len(roundScores) != len(set(roundScores))):
winner = 'There was a tie in'
else:
winnerId = roundScores.index(min(roundScores)) + 1
winner = 'Player ' + str(winnerId) + ' is the winner of'
settings.mainscreen.addstr(2, 0, winner.center(curses.COLS - 1))
settings.mainscreen.addstr(3, 0, ('Round #' + str(self.curRound) +
' of').center(curses.COLS - 1))
settings.mainscreen.addstr(5, 0, settings.buildLogo())
settings.mainscreen.addstr(17, 31, '[ Press any key to continue ]',
curses.color_pair(4))
settings.mainscreen.refresh()
start = settings.mainscreen.getch() # Wait for feeback
# Announce the winner of the game
settings.mainscreen.clear()
# Check for ties
if (len(self.scores) != len(set(self.scores))):
winner = 'There was a tie for this game of'
else:
winner = 'Player ' + str(self.scores.index(min(self.scores)) +
1) + ' is the winner of'
settings.mainscreen.addstr(2, 0, winner.center(curses.COLS - 1))
settings.mainscreen.addstr(5, 0, settings.buildLogo())
settings.mainscreen.addstr(17, 31, '[ Press any key to continue ]',
curses.color_pair(1))
settings.mainscreen.bkgd(' ', curses.color_pair(4))
settings.mainscreen.refresh()
start = settings.mainscreen.getch() # Wait for feeback
# Clean for next game
settings.mainscreen.clear()
class War:
def __init__(self, num_players=2):
self.num_players = num_players
self.hands = [Hand for _ in range(num_players)]
self.deck = Deck()
def deal_cards(self):
# Distributes the cards from the deck to the player
self.deck.shuffle()
hands = [[] for _ in range(self.num_players)]
i = 0
# If 52 isn't divisible by num_players, then we will have extra cards
while (len(self.deck) != 0):
player = i % self.num_players
hands[player] += self.deck.draw_card()
i += 1
# Creates hand objects with the list of cards in them
for i in range(self.num_players):
self.hands[i] = Hand(hands[i])
def round_winner(self):
''' Checks to see which player is winner and grants them cards '''
# Keeps check of the values of the cards played.
played_cards = []
for i in range(self.num_players):
if self.hands[i].is_empty():
self.refill_hand(i)
played_cards += self.hands[i].play_cards()
# need to do this so I can keep track of index
highest_card = played_cards[0].value
winner = 0
winners = [0]
for i in range(1, self.num_players):
# ensures that there is a high card
if highest_card < played_cards[i].value:
highest_card = played_cards[i]
# Want the first index of the list to be the winner
winner = i
winners[0] = i
if highest_card == played_cards[i].value:
# Will pass a list into war so that we can have war with all winners
winners.append(i)
# if the highest card is tied, go to war
# goes into this when it shouldn't trying to figure it out
if (len(winners) > 1):
winner = self.round_war(winners)
self.hands[winner].discard(played_cards)
def round_war(self, winning_indexes):
'''Called when values equal each other
winning_index is a list of the winners for war to initiate
'''
# Keeps check of the values of the cards played.
played_cards = []
winner = winning_indexes[0]
winners = [winning_indexes[0]]
for i in range(len(winning_indexes)):
if self.hands[winning_indexes[i]].is_empty():
self.refill_hand(winning_indexes[i])
played_cards.append(self.hands[winning_indexes[i]].play_cards(
len(self.hands[winning_indexes[i]].cards)))
else:
played_cards.append(
self.hands[winning_indexes[i]].play_cards(4))
# Checks the last card playeds value
highest_card = played_cards[0][-1].value
for i in range(1, len(played_cards)):
# ensures that there is a high card
if highest_card < played_cards[i][-1].value:
highest_card = played_cards[i][-1]
# Want the first index of the list to be the winner
winner = winning_indexes[i]
winners[0] = i
if highest_card == played_cards[i][-1].value:
# Will pass a list into war so that we can have war with all winners
winners.append(i)
if (len(winners) > 1):
winner = self.round_war(winners)
for list_of_cards in played_cards:
self.hands[winner].discard(list_of_cards)
return winner
def check_winner(self):
''' Checks to see if there was a winner in the game yet. '''
winners = [len(c) == len(Deck.fullDeck) for c in self.hands]
if sum(winners) == 0:
return -1
return winners.index(True)
# Deals with empty hand
def refill_hand(self, index):
self.hands[index].shuffle()
self.hands[index] = Hand(self.hands[index].discarded)
class Hand():
# We are assuming the players are in position to act here
def __init__(self, players, buttonplayer, smallblind, bigblind):
self.buttonplayer = buttonplayer
# Just assuming button player is the first player here
# So the players list is ordered according to order to act
self.players = players
self.active_players_pos = range(0, len(players))
self.players_to_act_pos = range(0, len(players))
self.deck = Deck()
self.smallblind = smallblind
self.bigblind = bigblind
self.pot = 0
self.flop = None
self.turn = None
self.river = None
self.action_when = None
self.player_to_act_pos = -1
self.nplayers = len(players)
self.curbet = 0
def place_blinds(self):
self.pot = self.smallblind + self.bigblind
self.players[0].stack = self.players[0].stack - self.bigblind
self.players[1].stack = self.players[1].stack - self.smallblind
self.curbet = self.bigblind
# Returns the player that is next to act
def next_to_act(self):
if self.action_when == None:
print("Need to deal first")
else:
return (self.players[self.player_to_act_pos])
def do_action(self, someaction, betsize):
type_of_action = self.action_when
player_to_act = self.next_to_act()
player_to_act.do_action_player(someaction, betsize, type_of_action)
# If this player folds, then remove this player from list of active players
if someaction == "fold":
self.active_players_pos.remove(self.player_to_act_pos)
# If this player calls, then put some money in the pot
# If there is no current bet, then assume this is a check
if someaction == "call":
player_to_act.stack -= self.curbet
self.pot += self.curbet
# If this player bets, then work out what the current bet size is
if someaction == "bet":
# Check that the bet is as big as the current bet
if betsize <= self.curbet:
print(
"Betsize needs to be as big as the current bet which is ",
self.curbet)
return ()
self.curbet = betsize
player_to_act.stack -= betsize
self.pot += betsize
# Let's move the next player to act along
self.player_to_act_pos = self.find_next_active_pos()
# If there is only one active player left, then this player wins the pot
if len(self.active_players_pos) == 1:
self.players[self.player_to_act_pos].stack += self.pot
print("Hand is done. Pot size is ", self.pot,
" current phase is: ", self.action_when)
return (1)
else:
print("Pot size is ", self.pot, " next player to act ",
self.player_to_act_pos)
# Given the current player to act, find the position in the players list of
# the next player
def find_next_active_pos(self):
next_player_to_act_pos = (self.player_to_act_pos + 1) % self.nplayers
while (next_player_to_act_pos not in self.active_players_pos):
next_player_to_act_pos = (next_player_to_act_pos +
1) % self.nplayers
return (next_player_to_act_pos)
def deal_players(self):
# Start of the hand where each player is dealt two cards
for player in self.players:
player.holecards = self.deck.deal_two_cards()
self.action_when = "Preflop"
# Under the gun position is the next to act in preflop
self.player_to_act_pos = 2
def deal_flop(self):
# Check that all players have either acted or folded preflop
flop1 = self.deck.deal_one_card()
flop2 = self.deck.deal_one_card()
flop3 = self.deck.deal_one_card()
self.flop = (flop1, flop2, flop3)
self.action_when = "Postflop"
self.player_to_act_pos = self.active_players_pos[0]
self.curbet = 0
def deal_turn(self):
# Check that all players have either acted or folded preflop
turncard = self.deck.deal_one_card()
self.turn = turncard
self.action_when = "Turn"
self.player_to_act_pos = self.active_players_pos[0]
self.curbet = 0
def deal_turn(self):
turncard = self.deck.deal_one_card()
self.turn = turncard
self.action_when = "Turn"
self.player_to_act_pos = self.active_players_pos[0]
self.curbet = 0
def deal_river(self):
rivercard = self.deck.deal_one_card()
self.river = rivercard
self.action_when = "River"
self.player_to_act_pos = self.active_players_pos[0]
self.curbet = 0
class DeckTests(unittest.TestCase):
def setUp(self):
self.deck = Deck()
def test_init(self):
"""decks should have a cards attribute, which is a list with 52 cards"""
self.assertTrue(self.deck.cards, list)
self.assertEqual(len(self.deck.cards), 52)
def test_repr(self):
"""repr should return string: 'Deck of 52 Cards'"""
self.assertEqual(repr(self.deck), "Deck of 52 cards.")
def test_count(self):
"""count should return a count of the number of cards in the Deck"""
self.assertEqual(self.deck.count(), 52)
self.deck.cards.pop()
self.assertEqual(self.deck.count(), 51)
def test_deal_sufficient_cards(self):
"""_deal should deal the number of cards specified"""
cards = self.deck._deal(10)
self.assertEqual(len(cards), 10)
self.assertEqual(self.deck.count(), 42)
def test_deal_insufficient_cards(self):
"""_deal should deal the number of cards left in the deck, no more"""
cards = self.deck._deal(100)
self.assertEqual(len(cards), 52)
self.assertEqual(self.deck.count(), 0)
def test_deal_no_cards(self):
"""_deal should throw ValueError if the deck is empty'"""
self.deck._deal(self.deck.count())
with self.assertRaises(ValueError):
self.deck._deal(1)
def test_deal_card(self):
"""deal_card should deal a single card from the deck"""
card = self.deck.cards[-1]
dealt_card = self.deck.deal_card()
self.assertEqual(card, dealt_card)
self.assertEqual(self.deck.count(), 51)
def test_deal_hand(self):
"""deal_hand should deal the number of cards passed into it"""
cards = self.deck.deal_hand(20)
self.assertEqual(len(cards), 20)
self.assertEqual(self.deck.count(), 32)
def test_shuffle_full_deck(self):
"""shuffle should shuffle the deck if deck is full"""
cards = self.deck.cards[:]
self.deck.shuffle()
self.assertNotEqual(cards, self.deck.cards)
self.assertEqual(self.deck.count(), 52)
def test_shuffle_not_full_deck(self):
"""shuffle should throw ValueError if the deck isn't full"""
self.deck._deal(1)
with self.assertRaises(ValueError):
self.deck.shuffle()
__author__ = 'luke'
import random
from deck import Deck
from hand import Hand
from cards import Card
from players import Player
# get shuffeled deck
deck = Deck()
# get Players
luke = Player("luke")
toni = Player("toni")
# deal cards
while len(deck.cards) > 0:
luke.recive_card(deck.deal_one())
toni.recive_card(deck.deal_one())
print("lukes cards" + str(luke.deck))
print("deck" + str(deck.cards))
# start playing hands
count = 0
luke_max_cards = 0
pile = []
while (len(toni.deck) > 0) and (count < 2000000) and (len(luke.deck) > 0):
lukes_card = Card(luke.top_card())
tonis_card = Card(toni.top_card())
print(lukes_card.name + " vs " + tonis_card.name)