class Player(object):
def __init__(self, game, name):
self.game = game
self.name = name
self.cards = Hand()
def get_card(self):
self.cards.append(self.game.deck.pop())
class Croupier(Player):
def __init__(self, game, name):
super().__init__(game, name)
self.cards = Hand(maxwidth=11)
def __repr__(self):
return self.cards.repr(style="horizontal")
def __init__(self, demo=False):
"""
Sets the stage: Shuffles the deck, hands out 7 cards to each player
and places a card in the middle.
demo = True creates a game with 3 AI players.
"""
self.message = MessageHandler()
self.deck = Deck()
self.central_stack = Hand(style="top")
if not demo:
self.horst = HumanPlayer(self, "Horst")
else:
# Patch "Horst" to be an AIPlayer with the same __repr__ as a human player
self.horst = AIPlayer(self, "Horst")
self.horst.cards.style = "horizontal"
self.player_list = [
AIPlayer(self, "Fritz"),
AIPlayer(self, "Franz"), self.horst
]
self.players = cycle(self.player_list)
# When simulating 3 random players a million times, it turns out that the
# last player has a 2% handicap compared to the others. Hence: Random beginner.
for _ in range(randint(0, 2)):
next(self.players)
# Distribute cards.
for _ in range(7):
for _ in range(3):
self.current_player = next(self.players)
self.current_player.take_card()
self.central_stack.append(self.deck.pop())
# Set up central counters for the number of unhandeled sevens and eights.
if self.central_stack[-1].rank == "7":
self.sevens = 1
else:
self.sevens = 0
if self.central_stack[-1].rank == "8":
self.eights = 1
else:
self.eights = 0
def __init__(self, game, name):
self.cards = Hand(style=self.__class__.style, name=name)
self.game = game
self.name = name
self.message = self.game.message
class Player(object):
"""
Base class for player objects. Encapsulates the core game mechanics of drawing
and playing cards.
"""
def __init__(self, game, name):
self.cards = Hand(style=self.__class__.style, name=name)
self.game = game
self.name = name
self.message = self.game.message
def take_card(self):
"""
Take a card from the deck. If the deck is empty, take the bottom n-1 cards
from the central stack and shuffle them to get a new deck.
"""
if not self.game.deck:
self.game.deck = self.game.central_stack[:-1]
self.game.central_stack = [self.game.central_stack[-1]]
shuffle(self.game.deck)
self.cards.append(self.game.deck.pop())
def handle_sevens(self):
"""
Take 2n cards from the deck if there are n "active" sevens in the middle.
"""
for _ in range(self.game.sevens):
self.take_card()
self.take_card()
self.message.push("{} has to draw {} cards!".format(
self.name, 2 * self.game.sevens))
self.game.sevens = 0
print(self.game)
def matches(self, top_card):
matching_suite = [c for c in self.cards if c.suite == top_card.suite]
matching_rank = [c for c in self.cards if c.rank == top_card.rank]
return matching_suite, matching_rank
def move(self):
"""
Automates the players choices as far as possible regardless of if it is
a human or AI player. Returns True, if we have to skip one round, False,
if the player has to pass, and None otherwise.
"""
top_card = self.game.central_stack[-1]
# If the top card is a 8, we have to skip this round if the 8 is still
# effective, that is, if no other player before us has skipped because
# of this card.
if self.game.eights:
self.message.push("{} has to skip one round.".format(self.name))
self.game.eights = 0
return True
# If the top card is a 7, we can avoid having to draw 2(n) cards if we play
# a 7 of our own. However, we leave this choice (if there is one) to the
# player, hence, we call handle_sevens only if there is no other possibility
elif top_card.rank == "7" and self.game.sevens:
sevens = [c for c in self.cards if c.rank == "7"]
if not sevens:
self.handle_sevens()
# Now look if we have matching cards. If not, draw a card from the deck.
matching_suite, matching_rank = self.matches(top_card)
if not matching_suite and not matching_rank:
self.take_card()
self.message.push("{} has to draw a card.".format(self.name))
print(self.game)
# Look (possibly) again for a match. If there is none, we have to pass.
matching_suite, matching_rank = self.matches(top_card)
if not matching_suite and not matching_rank:
self.message.push("{} has to pass.".format(self.name))
return False
# At this point, there is (possibly) a choice left to the player, which
# may differ for AI and human players. Therefore, we return None.
return None
def play(self, card):
"""
Play out a card, announce that we have won by raising MauMau, increment
and decrement the counters of unhandeled sevens and eights
"""
self.cards.remove(card)
self.game.central_stack.append(card)
self.message.push("{} plays {} of {}.".format(self.name, card.rank,
card.suite))
if card.rank == "7":
self.game.sevens += 1
else:
self.game.sevens = 0
if card.rank == "8":
self.game.eights = 1
else:
self.game.eights = 0
if not self.cards:
raise MauMau
def __repr__(self):
return self.cards.repr(style=self.style)
class Game(object):
"""
Game is the class encapsulating the game logic of (counterclockwise) rounds
of the players in Game().player_list, breaking out of the endless loop in
Game().play() only if either MauMau or GameAbort is raised.
"""
def __init__(self, demo=False):
"""
Sets the stage: Shuffles the deck, hands out 7 cards to each player
and places a card in the middle.
demo = True creates a game with 3 AI players.
"""
self.message = MessageHandler()
self.deck = Deck()
self.central_stack = Hand(style="top")
if not demo:
self.horst = HumanPlayer(self, "Horst")
else:
# Patch "Horst" to be an AIPlayer with the same __repr__ as a human player
self.horst = AIPlayer(self, "Horst")
self.horst.cards.style = "horizontal"
self.player_list = [
AIPlayer(self, "Fritz"),
AIPlayer(self, "Franz"), self.horst
]
self.players = cycle(self.player_list)
# When simulating 3 random players a million times, it turns out that the
# last player has a 2% handicap compared to the others. Hence: Random beginner.
for _ in range(randint(0, 2)):
next(self.players)
# Distribute cards.
for _ in range(7):
for _ in range(3):
self.current_player = next(self.players)
self.current_player.take_card()
self.central_stack.append(self.deck.pop())
# Set up central counters for the number of unhandeled sevens and eights.
if self.central_stack[-1].rank == "7":
self.sevens = 1
else:
self.sevens = 0
if self.central_stack[-1].rank == "8":
self.eights = 1
else:
self.eights = 0
def is_legal(self, card):
top_card = self.central_stack[-1]
return top_card.suite == card.suite or top_card.rank == card.rank
def play(self):
skipped = False
length = 0
while True:
length += 1
# Print the game
print(self)
# Next player
self.current_player = next(self.players)
time.sleep(1)
try:
self.current_player.move()
except MauMau:
# Winner, winner, chicken dinner!
print(self)
self.message.push("{} has won!".format(
self.current_player.name))
if self.current_player != self.horst:
self.message.user_message(
"Sorry, you have lost against {}!".format(
self.current_player.name))
else:
self.message.user_message(
"Congratulations {}, you have won this game!".format(
self.current_player.name))
break
except GameAbort:
self.message.user_message("Thank you for playing!")
break
return self.current_player.name, length
def __repr__(self):
"""
Representing unicode string for the game: First row is Fritz, then Franz, then Horst (the human player).
"""
anchor = "\x1b7\x1b[1;1f" # ANSI escape sequence to start at row 1, columm 1
cards = "\n".join([str(player) for player in self.player_list
]) # the players' cards
center = [""] * 4 + [
(" " * 7) + line for line in str(self.central_stack).splitlines()
] + [""] * 12 # the central stack gets printed in the middle
# Join everything up.
all = "\n".join([anchor] +
[c + l for c, l in zip(cards.splitlines(), center)] + [
"{:<59}".format(" ".join([
"{:>2}".format(Hand.alphabet[i].upper())
for i in range(len(self.horst.cards))
]))
] + ["\x1b8"])
return all
def __init__(self, game, name):
self.game = game
self.name = name
self.cards = Hand()
def __init__(self, game, name):
super().__init__(game, name)
self.cards = Hand(maxwidth=11)