def run(self): num_players = len(self._state.players) idx = random.randint(0,num_players-1) while not self._completed(): # cash = [player.cash for player in self._state.players] # print cash player = self._state.players[idx] idx = (idx + 1) % len(self._state.players) roll = Roll() print '%s rolled a %d%s' % (player.name, roll.value, ' (doubles)' if roll.is_doubles else '') if player.jail_moves > 0 and roll.is_doubles: self._state.apply(GroupOfChanges(changes=[GameStateChange.leave_jail(player)])) elif player.jail_moves >= 2: self._state.apply(GroupOfChanges(changes=[GameStateChange.decrement_jail_moves(player)])) self._wait() continue elif player.jail_moves == 1: # TODO: Allow player to choose to use a "Get out of jail free" card pay_changes = player.pay(self._state.bank, 50, self._state) leave_changes = GroupOfChanges(changes=[GameStateChange.leave_jail(player)]) self._state.apply(GroupOfChanges.combine([pay_changes, leave_changes])) self._take_turn(player, roll.value) num_rolls = 0 max_rolls = 2 while roll.is_doubles: roll = Roll() print '%s rolled a %d%s' % (player.name, roll.value, ' (doubles)' if roll.is_doubles else '') num_rolls += 1 if num_rolls > max_rolls: self._state.apply(GroupOfChanges(changes=[GameStateChange.send_to_jail(player)])) break self._take_turn(player, roll.value)
def test_leave_jail(self):
state = GameState(1)
player = state.players[0]
# Test that leaving jail works no matter how many jail moves are left
for num_turns in range(0, 3):
# Set up player in jail
state.apply(GroupOfChanges([GameStateChange.send_to_jail(player)]))
# Decrement player's jail moves num_turns (0, 1, or 2) times
for i in range(0, num_turns):
state.apply(
GroupOfChanges(
[GameStateChange.decrement_jail_moves(player)]))
# Test leaving jail, and ensure that player's jail moves are changed
# correctly and that no other changes were made to the state.
str_before = str(state)
state.apply(GroupOfChanges([GameStateChange.leave_jail(player)]))
str_after = str(state)
expected_diff = [('Jail moves: %d' % (3 - num_turns),
'Jail moves: 0')]
self.assertDiffGameStates(str_before,
str_after,
expected_diff,
msg='Player did not leave jail properly')
def test_leave_jail(self):
state = GameState(1)
player = state.players[0]
# Test that leaving jail works no matter how many jail moves are left
for num_turns in range(0, 3):
# Set up player in jail
state.apply(GroupOfChanges([
GameStateChange.send_to_jail(player)]))
# Decrement player's jail moves num_turns (0, 1, or 2) times
for i in range(0, num_turns):
state.apply(GroupOfChanges([
GameStateChange.decrement_jail_moves(player)]))
# Test leaving jail, and ensure that player's jail moves are changed
# correctly and that no other changes were made to the state.
str_before = str(state)
state.apply(GroupOfChanges([
GameStateChange.leave_jail(player)]))
str_after = str(state)
expected_diff = [
('Jail moves: %d' % (3-num_turns), 'Jail moves: 0')
]
self.assertDiffGameStates(str_before, str_after, expected_diff,
msg='Player did not leave jail properly')
def run(self):
num_players = len(self._state.players)
idx = random.randint(0, num_players - 1)
while not self._completed():
# cash = [player.cash for player in self._state.players]
# print cash
player = self._state.players[idx]
idx = (idx + 1) % len(self._state.players)
roll = Roll()
print '%s rolled a %d%s' % (player.name, roll.value, ' (doubles)'
if roll.is_doubles else '')
if player.jail_moves > 0 and roll.is_doubles:
self._state.apply(
GroupOfChanges(
changes=[GameStateChange.leave_jail(player)]))
elif player.jail_moves >= 2:
self._state.apply(
GroupOfChanges(
changes=[GameStateChange.decrement_jail_moves(player)
]))
self._wait()
continue
elif player.jail_moves == 1:
# TODO: Allow player to choose to use a "Get out of jail free" card
pay_changes = player.pay(self._state.bank, 50, self._state)
leave_changes = GroupOfChanges(
changes=[GameStateChange.leave_jail(player)])
self._state.apply(
GroupOfChanges.combine([pay_changes, leave_changes]))
self._take_turn(player, roll.value)
num_rolls = 0
max_rolls = 2
while roll.is_doubles:
roll = Roll()
print '%s rolled a %d%s' % (player.name, roll.value,
' (doubles)'
if roll.is_doubles else '')
num_rolls += 1
if num_rolls > max_rolls:
self._state.apply(
GroupOfChanges(
changes=[GameStateChange.send_to_jail(player)]))
break
self._take_turn(player, roll.value)
def respond_to_state(self, player, new_state): if player.jail_moves > 0 and player.jail_free_count > 0: # Pick a Deck to return the jail free card to randomly # TODO: Need a better way of picking a Deck to return the jail free card to if (randint(0, 1) == 0): deck = new_state.decks[CHANCE_CARD] else: deck = new_state.decks[COMMUNITY_CHEST_CARD] use_card = GameStateChange.decrement_jail_card_count(player, deck) leave_jail = GameStateChange.leave_jail(player) return NotificationChanges(non_building_changes=[use_card, leave_jail]) else: return NotificationChanges()
def respond_to_state(self, player, new_state):
if player.jail_moves > 0 and player.jail_free_count > 0:
# Pick a Deck to return the jail free card to randomly
# TODO: Need a better way of picking a Deck to return the jail free card to
if (randint(0, 1) == 0):
deck = new_state.decks[CHANCE_CARD]
else:
deck = new_state.decks[COMMUNITY_CHEST_CARD]
use_card = GameStateChange.decrement_jail_card_count(player, deck)
leave_jail = GameStateChange.leave_jail(player)
return NotificationChanges(
non_building_changes=[use_card, leave_jail])
else:
return NotificationChanges()
