def test_player_end_turn(self):
"""
Tests the end_turn method with 0 cards in player's deck.
Player's discard pile is shuffled and its cards go to player's deck.
A new hand with handsize cards is generated from player's deck.
"""
player = Player('Nikos', handsize=5)
player.hand.push(Card('Archer', 3, 0, 2), 1)
player.discard.push(Card('Archer', 3, 0, 2), 10)
player.active.push(Card('Archer', 3, 0, 2), 4)
player.end_turn()
self.assertEqual(player.active.size(), 0)
self.assertEqual(player.discard.size(), 0)
self.assertEqual(player.deck.size(), 10)
self.assertEqual(player.hand.size(), 5)
class Game(object):
"""
Simulates a game. This is the main class of the game.
"""
def __init__(self):
"""
Initialises the game by adding new players and defining the central area.
"""
self.player_1 = Player('Player 1')
self.player_pc = Player('Player PC')
self.central = {
'deck': CardsCollection(),
'active': CardsCollection(),
'supplement': CardsCollection(),
'active_size': 5
}
self.aggressive = True
def start_game(self):
"""
This is the main method of the game. It plays the game until a winner
is identified.
"""
self.aggressive = self.get_opponent()
self.set_up_game()
winner = False
while not winner:
self.player_1_turn()
self.display_info()
self.player_pc_turn()
winner = self.check_winner()
@staticmethod
def get_opponent():
"""
Asks the user for the type of the opponent to be used (aggressive or acquisative).
"""
while True:
opponent = raw_input(
"Do you want an aggressive (A) or an acquisative (Q) opponent?"
)
if opponent.lower() == 'a':
print "\nPlaying against aggressive opponent"
return True
elif opponent.lower() == 'q':
print "\nPlaying against acquisative opponent"
return False
# check cancel
else:
print "\nPlease give a valid option!"
def set_up_game(self):
"""
Initialises the game by generating the decks and cards needed.
It generates the central deck, the pile of supplements, the active
area cards and the players' decks and hands.
"""
self.init_central_deck()
self.init_supplement()
self.central['deck'].shuffle_collection()
for _ in range(self.central['active_size']):
card = self.central['deck'].pop()
self.central['active'].push(card)
self.player_1.init_deck()
self.player_pc.init_deck()
self.player_1.compute_strength()
self.player_pc.compute_strength()
self.player_1.init_hand()
self.player_pc.init_hand()
def init_central_deck(self):
"""
Initialises the central deck by pushing the predefined cards into the
deck.
"""
self.central['deck'].push(Card('Archer', 3, 0, 2), 4)
self.central['deck'].push(Card('Baker', 0, 3, 2), 4)
self.central['deck'].push(Card('Swordsman', 4, 0, 3), 3)
self.central['deck'].push(Card('Knight', 6, 0, 5), 2)
self.central['deck'].push(Card('Tailor', 0, 4, 3), 3)
self.central['deck'].push(Card('Crossbowman', 4, 0, 3), 3)
self.central['deck'].push(Card('Merchant', 0, 5, 4), 3)
self.central['deck'].push(Card('Thug', 2, 0, 1), 4)
self.central['deck'].push(Card('Thief', 1, 1, 1), 4)
self.central['deck'].push(Card('Catapault', 7, 0, 6), 2)
self.central['deck'].push(Card('Caravan', 1, 5, 5), 2)
self.central['deck'].push(Card('Assassin', 5, 0, 4), 2)
def init_supplement(self):
"""
Initialises the supplements pile by pushing the predefined cards into the
pile.
"""
self.central['supplement'].push(Card('Levy', 1, 2, 2), 10)
def display_info(self):
"""
Displays player's information.
"""
print "\n|----------------------------------------|"
print "|----------------- INFO -----------------|"
print "|----------------------------------------|"
print 'Health:'
print 'You: %s' % self.player_1.health
print 'PC: %s' % self.player_pc.health
print 'Strength:'
print 'You: %s' % self.player_1.strength
print 'PC: %s' % self.player_pc.strength
print "\nYour Values:"
self.player_1.print_values()
print "\nYour Hand:"
self.player_1.hand.print_collection(indexes=True)
print "\nYour active area:"
self.player_1.active.print_collection()
print "\nAvailable Cards to buy:"
self.central['active'].print_collection(indexes=True)
print "\nSupplement:"
supplement_size = self.central['supplement'].size()
if supplement_size > 0:
self.central['supplement'].print_card(supplement_size - 1)
print '----------------------------------------'
def player_1_turn(self):
"""
This method is responsible for player's (player_1) turn. It asks for
the action to be taken by printing appropriate messages indicating the
valid options and calls the corresponding methods.
"""
while True:
self.display_info()
print "\n----------------------------------------"
if self.player_1.hand.size(
) > 0 and self.player_1.money > 0 and self.player_1.attack > 0:
print "Choose Action: (P = Play All, [0-n] = Play Card, B = Buy Card, A = Attack, E = End Turn)"
valid = ['P', 'B', 'A', 'E'] + map(
str, range(self.player_1.hand.size()))
end_turn = self.player_1_action(valid)
elif self.player_1.hand.size() > 0 and self.player_1.money > 0:
print "Choose Action: (P = Play All, [0-n] = Play Card, B = Buy Card, E = End Turn)"
valid = ['P', 'B', 'E'] + map(str,
range(self.player_1.hand.size()))
end_turn = self.player_1_action(valid)
elif self.player_1.hand.size() > 0 and self.player_1.attack > 0:
print "Choose Action: (P = Play All, [0-n] = Play Card, A = Attack, E = End Turn)"
valid = ['P', 'A', 'E'] + map(str,
range(self.player_1.hand.size()))
end_turn = self.player_1_action(valid)
elif self.player_1.money > 0 and self.player_1.attack > 0:
print "Choose Action: (B = Buy Card, A = Attack, E = End turn)"
valid = ['B', 'A', 'E']
end_turn = self.player_1_action(valid)
elif self.player_1.money > 0:
print "Choose Action: (B = Buy Card, E = End Turn)"
valid = ['B', 'E']
end_turn = self.player_1_action(valid)
elif self.player_1.attack > 0:
print "Choose Action: (A = Attack, E = End Turn)"
valid = ['A', 'E']
end_turn = self.player_1_action(valid)
elif self.player_1.hand.size() > 0:
print "Choose Action: (P = Play All, [0-n] = Play Card, E = End Turn)"
valid = ['P', 'E'] + map(str, range(self.player_1.hand.size()))
end_turn = self.player_1_action(valid)
else:
print "\nNo more possible actions.\nTurn ending."
self.player_1.end_turn()
break
if end_turn:
break
def player_1_action(self, valid):
"""
Gets user's choice, validates it and calls the appropriate method to
complete the action.
:param valid: a list of valid options for user's input
:return True: if user decides to end his turn (False otherwise)
"""
action = raw_input("Enter Action: ")
if action not in valid:
print "\nPlease give a valid option!"
elif action == 'P':
self.player_1.play_all()
elif action.isdigit():
index = int(action)
self.player_1.play_card(index)
elif action == 'B':
self.player_1_buy()
elif action == 'A':
self.player_1.attack_opponent(self.player_pc)
elif action == 'E':
self.player_1.end_turn()
return True
return False
def player_1_buy(self):
"""
This method is responsible for player's (player_1) buy action. It asks for
the card to be bought by printing appropriate messages indicating the
valid options and calls the corresponding methods.
"""
while self.player_1.money > 0:
print "\nAvailable Cards:"
self.central['active'].print_collection(indexes=True)
print "\nSupplement:"
supplement_size = self.central['supplement'].size()
if supplement_size > 0:
self.central['supplement'].print_card(supplement_size - 1)
print "\nYour Values:"
self.player_1.print_values()
buyable_central_cards = any(i.cost <= self.player_1.money
for i in self.central['active'].cards)
if supplement_size > 0:
buyable_supplement = (
self.player_1.money >=
self.central['supplement'].cards[supplement_size - 1].cost)
else:
buyable_supplement = False
print "\n----------------------------------------"
if buyable_supplement and buyable_central_cards:
print "\nChoose a card to buy: ([0-n] = Buy Card, S = Buy Supplement, E = End Buying)"
valid = ['S', 'E'] + map(str,
range(self.central['active'].size()))
end_buy = self.player_1_buy_option(valid)
elif buyable_supplement:
print "\nChoose a card to buy: (S = Buy Supplement, E = End Buying)"
valid = ['S', 'E']
end_buy = self.player_1_buy_option(valid)
elif buyable_central_cards > 0:
print "\nChoose a card to buy: ([0-n] = Buy Card, E = End Buying)"
valid = ['E'] + map(str, range(self.central['active'].size()))
end_buy = self.player_1_buy_option(valid)
else:
print "\nNo possible cards to buy"
break
print "\nYour Values:"
self.player_1.print_values()
if end_buy:
break
def player_1_buy_option(self, valid):
"""
Gets user's choice, validates it and calls the appropriate method to
complete the action.
:param valid: a list of valid options for user's input
:return True: if user decides to end his buy action (False otherwise)
"""
buy_choice = raw_input("Choose option: ")
if buy_choice not in valid:
print "\nPlease give a valid option!"
elif buy_choice == 'S':
self.player_1.buy_supplement(self.central['supplement'])
elif buy_choice.isdigit():
index = int(buy_choice)
if self.player_1.money >= self.central['active'].cards[index].cost:
self.player_1.buy_card(self.central['active'],
self.central['deck'], index)
else:
print "\nInsufficient money to buy! Please choose another card!"
elif buy_choice == 'E':
return True
return False
def player_pc_turn(self):
"""
This method is responsible for computers's (player__pc) turn.
"""
self.player_pc.play_all()
print "\nComputer's Turn:"
print "\nComputer Values:"
self.player_pc.print_values()
print "Computer attacking with strength %s..." % self.player_pc.attack
self.player_pc.attack_opponent(self.player_1)
print '\nHealth:'
print "You: %s" % self.player_1.health
print "PC: %s" % self.player_pc.health
print 'Strength:'
print 'You: %s' % self.player_1.strength
print 'PC: %s' % self.player_pc.strength
print "\nComputer Values:"
self.player_pc.print_values()
print "Computer buying..."
self.computer_buy()
self.player_pc.end_turn()
print "Computer turn ending"
def computer_buy(self):
"""
This method is responsible for computers's (player__pc) buy action.
It creates a list with the cards that could be bought, based on
computer's money and calls the appropriate methods in order to find the
best choice and to buy the card (if any).
"""
while self.player_pc.money > 0:
templist = []
supplement_size = self.central['supplement'].size()
if supplement_size > 0:
card = self.central['supplement'].cards[supplement_size - 1]
if self.player_pc.money >= card.cost:
templist.append(("S", card))
for i in range(self.central['active'].size()):
card = self.central['active'].cards[i]
if self.player_pc.money >= card.cost:
templist.append((i, card))
# check if there are possible cards to buy
if len(templist) > 0:
highest_idx = self.computer_best_buy(templist)
source = templist[highest_idx][0]
if source in range(self.central['active'].size()):
index = int(source)
self.player_pc.buy_card(self.central['active'],
self.central['deck'], index)
else:
self.player_pc.buy_supplement(self.central['supplement'])
else:
break
def computer_best_buy(self, templist):
"""
Finds the best card to buy for the computer player, based on a naive
approach and considering its type (aggressive or acquisative).
:param templist: a list (of tuples) of possible cards to buy
:return highest_idx: the index of the best card found in the given list
"""
highest_idx = 0
for current_idx in range(len(templist)):
if self.aggressive:
if templist[current_idx][1].attack > templist[highest_idx][
1].attack:
highest_idx = current_idx
elif templist[current_idx][1].attack == templist[highest_idx][
1].attack:
if templist[current_idx][1].cost < templist[highest_idx][
1].cost:
highest_idx = current_idx
else:
if templist[current_idx][1].money > templist[highest_idx][
1].money:
highest_idx = current_idx
elif templist[current_idx][1].money == templist[highest_idx][
1].money:
if templist[current_idx][1].cost < templist[highest_idx][
1].cost:
highest_idx = current_idx
return highest_idx
def check_winner(self):
"""
Check whether there is a winner, based on players' health, strength
and on central deck's size.
:return winner: True if a winner has been found
"""
winner = False
if self.player_1.health <= 0:
winner = True
print "Computer wins"
elif self.player_pc.health <= 0:
winner = True
print "Player One Wins"
elif self.central['active'].size() == 0:
print "No more cards available"
if self.player_1.health > self.player_pc.health:
print "Player One Wins on Health"
elif self.player_pc.health > self.player_1.health:
print "Computer Wins"
else:
if self.player_1.strength > self.player_pc.strength:
print "Player One Wins on Card Strength"
elif self.player_pc.strength > self.player_1.strength:
print "Computer Wins on Card Strength"
else:
print "Draw"
winner = True
return winner