def __init__(self, color):
self.drone = Drone('/' + color)
self.color = color
drone = self.drone
self.modes = {
"idle": Mode(drone),
"follow": FollowGesture(drone),
"land": TakeoffLand(drone),
"takeoff": TakeoffLand(drone, takeoff=True),
"north": Move(drone, 0),
"east": Move(drone, 3 * math.pi / 2),
"south": Move(drone, math.pi),
"west": Move(drone, math.pi / 2),
"stop": Move(drone, 0),
"forward": Move(drone, 0, relative=True),
"duck": Move(drone, 0, -1),
"jump": Move(drone, 0, 1),
"analyze": Photo(drone)
}
self.look_modes = {
"look": Turn(drone),
"right": Turn(drone, -1),
"left": Turn(drone, 1)
}
self.look_direction = 0
self.current_mode_pub = rospy.Publisher("/" + color + "_current_mode",
String,
queue_size=10)
self.look_mode_pub = rospy.Publisher("/" + color + "_look_mode",
String,
queue_size=10)
self.current_mode = self.modes["idle"]
self.look_mode = self.modes["idle"]
print('Drone ' + color + ' initialized')
def __init__(
self,
nplayers=2,
onmove=0,
systems=None,
stash=None,
alive=None, # list of player statuses, None for not yet created
):
self.nplayers = nplayers
self.onmove = onmove
if systems is None:
systems = []
alive = [None] * nplayers
self.systems = systems
if stash is None:
stash = Stash(nplayers + 1)
for sys in systems:
for m in sys.markers:
stash.request(m)
for s in sys.ships:
stash.request(s.piece)
self.stash = stash
if alive is None:
# This assumes that players with no home have been eliminated
alive = [False] * nplayers
for sys in systems:
if not sys.home is None:
alive[sys.home] = True
self.alive = alive
# This turn will be built one event as a time
self.curTurn = Turn(self)
def _turn1(self):
""" get the Turn object for the first turn
Returns
-------
Turn
"""
return Turn(self.params, self.turn1_ang)
def __is_stalemate(self):
stale = []
for i in range(0,8):
for j in range(0,8):
if isinstance(self.board[i][j], Piece) and self.board[i][j].colour == self.current_player:
for sq in self.board[i][j].available_moves(self.board, i, j):
stale.append(Turn(self.game.ruleset, self.board, self.game.log, self.game.player_1, self.game.player_2).ruleset.check_if_move_into_check(self.board, i, j, sq[0], sq[1]) == 'invalid move')
return all(stale)
def __init__(self,
name,
height,
width,
max_number_players,
end_type=False,
length_to_win=3):
self.name = name
self.width = width
self.height = height
self.grid = [[0 for i in range(self.width)]
for j in range(self.height)]
self.max_number_players = max_number_players
self.length_to_win = length_to_win
# Instantiate a dummy turn object
self.turn = Turn()
def firstTurn(self):
for player in self.players:
self.playerDict[player.name] = player
self.playerStates[player.name] = PlayerState(player, self)
self.round = 1
self.currentPlayer = self.players.pop(0)
self.firstPlayer = self.currentPlayer
self.log.append("Round 1")
self.currentTurn = Turn(self.currentPlayer, self.players, self.round, self.log, self)
def nextTurn(self):
self.currentTurn.cleanupPhase()
if self.supply.gameOver():
self.log.append("The Game is Over!!")
self.determineWinner()
self.players.append(self.currentPlayer)
self.currentPlayer = self.players.pop(0)
if self.currentPlayer == self.firstPlayer:
self.round += 1
self.log.append("Round %d" % (self.round))
self.currentTurn = Turn(self.currentPlayer, self.players, self.round, self.log, self)
def drive_to(bot, target: Vec3) -> Turn:
"""
Find the most naive turn to get to the target position
"""
car = bot.info.my_car
turns = Turn.all(car)
# Find best turn
delta_n = normalize(target - car.pos)
turn, _ = argmax(turns, lambda turn: dot(turn.dir, delta_n))
return turn
def run(self):
# Preflop
self.globalPot += Turn(self.players, self.board, self.smallBlind,
self.bigBlind).run()
self.emptyPlayersPots()
self.dealBoardCard(3)
# Flop
self.globalPot += Turn(self.players, self.board, self.smallBlind,
self.bigBlind).run()
self.emptyPlayersPots()
self.dealBoardCard(1)
#Turn
self.globalPot += Turn(self.players, self.board, self.smallBlind,
self.bigBlind).run()
self.emptyPlayersPots()
self.dealBoardCard(1)
#River
self.globalPot += Turn(self.players, self.board, self.smallBlind,
self.bigBlind).run()
self.emptyPlayersPots()
def play(self):
last_action = None
self.end_seat = self.filtered_seats[-1]
self.align_seat_deques()
while True:
seat = self.filtered_seats[0]
turn = Turn(
self.seats,
self.filtered_seats,
self.cards,
self.current_bet,
last_action,
)
action = turn.play()
if action:
last_action = action
self.resolve_action(seat, action)
if len(self.filtered_seats) == 1:
self.LOGGER.debug("Player {} wins".format(
self.filtered_seats[0].index))
self.move_all_bets_to_pots()
return list(self.filtered_seats)
if seat is self.end_seat:
# bets have been called
self.move_all_bets_to_pots()
return [
seat for seat in self.remaining_seats
if seat in self.filtered_seats
]
self.filtered_seats.rotate(-1)
self.align_seat_deques()
def next_turn(self):
print("Turn: {}. Active Player: {}".format(
self.turn_count, str(self._active_player.color)))
current_turn = Turn(self._active_player, self.board)
# DOMOVE:
self.board.move_piece(current_turn)
self.turn_list.append(current_turn)
# Switch player
if not current_turn.extra_turn:
if self._active_player is self.player1:
self._active_player = self.player2
else:
self._active_player = self.player1
# And increment the turn_count
self.turn_count += 1
def play(self):
explain_rules()
answer_guessed = False
while not self.did_win() and not self.strikes.limit_reached():
utils.clear_screen()
utils.print_header("Turn {}".format(str(self.turn_number)))
turn = Turn(self.answer, self.guessed_letters, self.strikes)
if self.answer.equals(turn.guess):
answer_guessed = True
break
self.guessed_letters.append(turn.guess)
if turn.guess not in self.answer.lower():
self.strikes.add(turn.guess)
self.turn_number += 1
self.end_game(answer_guessed)
return self.play_again()
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 smart_drive_to(bot, target: Vec3) -> Turn:
"""
Find a turn that will get us to the target position and avoid creating short line segments
"""
car = bot.info.my_car
speed = min(2295, norm(car.vel) * 1.4)
next_turn_pos = car.pos if bot.can_turn(
) else car.pos + car.forward * speed * bot.time_till_turn()
line_seg_min_len = speed * TURN_COOLDOWN
# local.x: how far in front of my car
# local.y: how far to the left of my car
# local.z: how far above my car
delta_local = dot(target - next_turn_pos, car.rot)
SOME_SMALL_VALUE = 20
if delta_local.x < 0:
delta_local.x = -delta_local.x
if SOME_SMALL_VALUE < delta_local.x < line_seg_min_len:
# Turning now results in a miss later
return Turn.no_turn(car)
else:
return drive_to(bot, target)
def main():
players = {}
numberOfPlayers = 0
while numberOfPlayers < 1 or numberOfPlayers > 5:
try:
numberOfPlayers = int(input("How many players (1-5)? "))
except ValueError:
print("Pick a number between 1-5.")
i = 1
while i <= numberOfPlayers:
players[i] = Player(i)
i += 1
# Run a turn
n = 1
while True:
newPlayers = playerRefresh(players, n)
if newPlayers:
Turn(newPlayers)
n += 1
else:
break
def move(direction, seconds):
"""generic move method"""
if direction in ['forward', 'backward']:
exec_move = Move()
if direction == 'forward':
exec_move.forward(seconds)
else:
exec_move.backward(seconds)
result = 'done move'
elif direction in ['left', 'right']:
exec_move = Turn()
if direction == 'left':
exec_move.left(seconds)
else:
exec_move.right(seconds)
result = 'done turn'
else:
result = '{0} is no valid direction, choose between forward, backward, left, right.'.format(
direction)
return jsonify({
'result': result,
'direction': direction,
'seconds': seconds
})
def play_turn(self, player):
new_turn = Turn(player, self.board, self.rules, self.ui)
result = new_turn.play_turn()
self.moves_left[player.color] = result
class State:
def __init__(self, data):
self.nouns = data.nouns
self.rooms = data.rooms
self.vars = data.vars
self.messages = data.messages
self.lexicon = data.lexicon
self.current_room = next(room for room in self.rooms.itervalues() if room.is_start)
self.current_room.visit()
# junction lists
self.locations = set()
self.tags = set()
for noun in self.nouns.itervalues():
self.locations |= set((noun, self.locations_by_id(lid)) for lid in noun.initial_locs)
self.tags |= set((noun, tag) for tag in noun.initial_tags)
for room in self.rooms.itervalues():
self.tags |= set((room, tag) for tag in room.initial_tags)
self.current_turn = None
def start_turn(self, command):
"""Create a new turn object with the given command."""
self.current_turn = Turn(command)
def command_matches(self, control_str):
"""Check if the number of terms in the given control string is equal to or less
than the number of words in current turn's command, and each term is a wildcard,
a synonymous word, or a piped list of words where at least one is synonymous."""
control_terms = [cterm for cterm in control_str.lower().split()
if cterm not in ('a', 'an', 'the')]
return (len(control_terms) <= len(self.current_turn.words) and
all(cterm == '*' or
any(self.lexicon.words_match(cword, self.current_turn.words[i])
for cword in cterm.split('|'))
for i, cterm in enumerate(control_terms)))
def sub_words(self, phrase):
return self.current_turn.sub_words(phrase) if self.current_turn is not None else phrase
def locations_by_id(self, lid):
"""Return the noun or room with the given ID."""
return (lid if lid in ('INVENTORY', 'WORN')
else self.nouns.get(lid) or self.rooms.get(lid))
def entities_by_tag(self, *tags):
"""Return a list of rooms or nouns with at least one of the given tags."""
return set(entity for entity, tag in self.tags if tag in tags)
def nouns_by_tag(self, *tags):
"""Return a list of nouns with at least one of the given tags."""
return self.entities_by_tag(*tags) & set(self.nouns.itervalues())
def rooms_by_tag(self, *tags):
"""Return a list of rooms with at least one of the given tags."""
return self.entities_by_tag(*tags) & set(self.rooms.itervalues())
def nouns_by_word(self, *words):
"""Return a list of nouns that match any of the given words."""
return set(noun for noun in self.nouns.itervalues() if set(words) & noun.words)
def nouns_by_input_word(self, wordnum):
"""Return a list of nouns matching the input word at the given index."""
try:
return self.nouns_by_word(self.current_turn.words[wordnum - 1])
except IndexError:
return set()
def nouns_at_loc(self, *locs):
"""Return all nouns at any of the given locations."""
return set(noun for noun, loc in self.locations if loc in locs)
def noun_locs(self, *nouns):
"""Return all nouns or rooms containing any of the given nouns."""
return set(loc for noun, loc in self.locations if noun in nouns)
def add_noun(self, noun, *locs):
"""Add the given noun to all the given locations."""
self.locations |= set((noun, loc) for loc in locs)
def remove_noun(self, noun, *locs):
"""Remove the given noun from all the given locations."""
self.locations -= set((noun, loc) for loc in locs)
def move_noun(self, noun, *locs):
"""Replace the given noun's current locations with the given ones."""
self.clear_noun_locs(noun)
self.add_noun(noun, *locs)
def clear_noun_locs(self, *nouns):
"""Remove the given nouns from all locations."""
self.locations -= set((noun, loc) for noun, loc in self.locations if noun in nouns)
def add_tag(self, tag, *entities):
"""Add the tag to all given entities."""
self.tags |= set((entity, tag) for entity in entities)
def remove_tag(self, tag, *entities):
"""Remove the tag from all given entities."""
self.tags -= set((entity, tag) for entity in entities)
def find_turns(topic, turn_section):
#This is the regular expression to find the turn of a topic
#This is the regular expression to find out the user and date of a turn
author_reg = '\[\[User(\s*talk)*:(?P<name>.*?)\|(?P<alias>.*?)\]\]'
author_reg_c = re.compile(author_reg)
user_date_reg = '\[\[User(\s*talk)*:(?P<name>.*?)'\
'\|(?P<alias>.*?)\]\]'\
'[\s\|]*(\(*\[\[.*\]\]\)*)*\s*'\
'(?P<date>[a-zA-Z0-9i/,:\-\s]+)?'
user_date_reg_c= re.compile(user_date_reg)
#try to different turn indent from list indent
list_reg = '[:\*#;\d]+'
list_reg_c = re.compile(list_reg)
#this indicate turn indent as a discussion thread
thread_reg = ':+'
thread_reg_c = re.compile(thread_reg)
#Find the potential turn list based on line break
#The turn list returned mightnot be the actual one, because
#some authors add linebreak in their messages
#we may need to combine a few contiguous turns to form a
#complete turn
#We know a turn is complete if we see user information at the
#end, or if the next candidate starts with ":", a wiki markup
#indicating indent and follow up thread
#
turn_text_pre = ''
turn_finish = True
turn_list = turn_section.split('\n')
for turn_text in turn_list:
#pdb.set_trace()
turn_text = turn_text.strip()
if len(turn_text) == 0:
continue
user = user_date_reg_c.search(turn_text)
if user is not None:
if turn_text.startswith(':'):
if list_reg_c.match(turn_text) is None:
if not turn_finish:
turn = Turn(turn_text_pre.strip())
topic.add_turn(turn)
turn_text_pre = ''
turn_finish = True
if not turn_finish:
turn_text = turn_text_pre + '\n' + turn_text
#if there are multiple matching, we take th e last one
#pdb.set_trace()
users = user_date_reg_c.finditer(turn_text)
for match in users:
date_str = match.group('date')
author = match.group('name')
date = None
if date_str is not None:
date = str_to_datetime(date_str)
if date is not None:
turn = Turn(turn_text.strip(), author,date)
else:
turn = Turn(turn_text.strip(), author)
topic.add_turn(turn)
turn_text_pre = ''
turn_finish = True
else:
# a normal paragraph add it to previous one
if not turn_text.startswith(':'):
turn_text_pre = turn_text_pre+ '\n' + turn_text
turn_finish = False
else:
# check if it is just a list
if list_reg_c.match(turn_text) is not None:
turn_text_pre = turn_text_pre + '\n' + turn_text
turn_finish = False
# this is a new turn
else:
#check if there is a previous unfinished turn
if not turn_finish:
turn = Turn(turn_text_pre.strip())
topic.add_turn(turn)
#start the new turn
turn_text_pre = turn_text
else: #this is another section of a previous turn
turn_text_pre = turn_text
turn_finish = False
if not turn_finish and len(turn_text_pre)> 0:
topic.add_turn(Turn(turn_text_pre.strip()))
# build parent-child relationship
# turns in a topic is added in time order
# after previous processing
# some user use list mark up to indicate followup
turns = topic.turns
parent_stack = []
for turn in turns:
turn_text = turn.text
indent = list_reg_c.match(turn_text)
#pdb.set_trace()
if indent is None:
# start of a new thread
if len(parent_stack) > 0:
del parent_stack[:]
parent_stack.append(turn)
else:
indent_str = indent.group()
level = len(indent_str) # intended level
#pdb.set_trace()
current = len(parent_stack)-1 # current level
if current < 0: # this is the first turn
parent_stack.append(turn)
continue
if level > current:
parent = parent_stack[current]
parent.add_sub(turn)
turn.add_parent(parent)
parent_stack.append(turn)
# continue
#if level == current: #same level,maybe a reply of previous one
# pop the old one
# parent_stack.pop()
# parent = parent_stack[current]
# parent.add_sub(turn)
# turn.add_parent(parent)
# parent_stack.append(turn)
else: # this is a reply of previous turn
diff = current - level + 1
for counter in range(diff):
parent_stack.pop()
parent = parent_stack[len(parent_stack)-1]
parent.add_sub(turn)
turn.add_parent(parent)
parent_stack.append(turn)
def __fight(self):
print(f'Um {self.npc.name} apareceu! Prepare-se!')
printWSleep()
while self.player.alive and self.npc.alive:
self.turns += 1
Turn(self.player, self.npc)
def right(seconds):
"""right method"""
turn_rgt = Turn()
turn_rgt.right(seconds)
return jsonify({'result': "done", 'direction': '', 'drive_time': seconds})
def pickTurn(self):
""" Yields the turn for the proper player """
while True:
for player in self.players:
yield Turn(player, self)
help='How long must the car drive',
type=int,
default=1)
PARSER.add_argument('--speed',
help='How fast must the car drive',
type=int,
default=1)
ARGS = PARSER.parse_args()
# LOGLEVEL = ARGS.loglevel
DIRECTION = ARGS.direction
DIRECTION = -1 # backward
DRIVE_TIME = ARGS.seconds
WAIT_TIME = ARGS.speed / float(1000)
# set log level
if ARGS.verbose:
logging.getLogger().setLevel(logging.DEBUG)
AMOVE = Move()
AMOVE.drive_time = 2
AMOVE.run()
ATURN = Turn()
ATURN.drive_time = 2
ATURN.direction = -1
ATURN.run()
AMOVE = Move()
AMOVE.wait_time = 5
AMOVE.run()
class Boardgame:
piece_marker_dict = {0: " "}
max_number_players = 0
players = []
type = "" # Options: "2048-like" or "tic-tac-toe-like"
length_to_win = 0
def __init__(self,
name,
height,
width,
max_number_players,
end_type=False,
length_to_win=3):
self.name = name
self.width = width
self.height = height
self.grid = [[0 for i in range(self.width)]
for j in range(self.height)]
self.max_number_players = max_number_players
self.length_to_win = length_to_win
# Instantiate a dummy turn object
self.turn = Turn()
def update_available_markers(self):
# First, get all markers
available_markers = list(self.piece_marker_dict.values())
# Remove the empty space as an available marker
available_markers.remove(' ')
# Then, search for markers being used by a player
for player in self.players:
# Remove not available markers in list
if player.marker in available_markers:
available_markers.remove(player.marker)
return available_markers
def g2048_init(self):
g2048_add_new_tile(self.grid)
g2048_add_new_tile(self.grid)
def tic_tac_toe_init(self):
selected_marker = ""
for player in self.players:
print("Associate player {} with which marker?".format(player.name))
available_markers = self.update_available_markers()
ask_marker = True
while ask_marker:
print("Available markers: {}".format(available_markers))
selected_marker = input()
if selected_marker not in available_markers:
print("Invalid marker! Try again")
else:
ask_marker = False
player.marker = selected_marker
def g2048_after_execution(self, grid_altered):
# Procedures object made just to access the methods that test the game over condition
procedures_obj = Procedures()
# If the grid was altered, add a new random tile
if grid_altered:
g2048_add_new_tile(self.grid)
# Verify if it's game over
game_over = procedures_obj.g2048_is_game_over(self.grid)
max_value = get_grid_tile_max(self.grid)
if max_value == 2048:
print("Congratulations! You have a winning configuration!")
return game_over
def tic_tac_toe_after_execution(self, grid_altered):
game_over = False
if grid_altered:
game_over, winner_marker, number = tic_tac_toe_victory(
self.grid, self.length_to_win)
if game_over:
winner = self.players[0]
for player in self.players:
if player.marker == self.piece_marker_dict[winner_marker]:
winner = player
print("{} has won the game!".format(winner.name))
return game_over
def init_game(self):
if self.type == "2048-like":
self.g2048_init()
elif self.type == "tic-tac-toe-like":
self.tic_tac_toe_init()
def run_game(self):
# Add players in the game
for i in range(self.max_number_players):
print("Player {} name: ".format(i + 1))
new_player = Player(input())
self.players.append(new_player)
if i + 1 < self.max_number_players:
print("Do you want to add more players? (You can add {} more)".
format(self.max_number_players - (i + 1)))
print("1: Yes")
print("2: No")
option = input()
if option == "2":
break
# Start procedure:
# Put the first player in the list as their turn
self.turn.player = self.players[0]
# Run init_game() to load starting situation
self.init_game()
# Create game loop
turn_index = 0 # Variable to keep track of each player's turn
grid_altered = True # Variable that tells if the grid was altered after an action
game_over = False
while not game_over: # Game loop
# Print the grid
print(
grid_to_string_with_size_and_theme(self.grid,
self.piece_marker_dict,
len(self.grid)))
# Announce the player's turn, and their available actions
self.turn.list_actions()
# Ask the player which action he/she will perform
self.turn.ask_action()
# Execute action
action_result = self.turn.execute_action()
# Check if result is valid
if action_result is not None:
# If it is, check whether the updated grid is different from the old one
if not equal_grids(self.grid, action_result):
# Update grid
self.grid = action_result
grid_altered = True
else:
grid_altered = False
else:
# Else, the user has put an invalid input (an input that is not equal to any action)
print("Wrong input! Try again")
continue
# Do things after execution (like verify movement)
if self.type == "2048-like":
game_over = self.g2048_after_execution(grid_altered)
elif self.type == "tic-tac-toe-like":
game_over = self.tic_tac_toe_after_execution(grid_altered)
if not game_over:
# Change turn:
turn_index += 1
if turn_index == len(self.players):
turn_index = 0
self.turn.player = self.players[turn_index]
# Print the grid one more time to show the game over grid
print(
grid_to_string_with_size_and_theme(self.grid,
self.piece_marker_dict,
len(self.grid)))
print("Game Over !")
class HWState:
def __init__(
self,
nplayers=2,
onmove=0,
systems=None,
stash=None,
alive=None, # list of player statuses, None for not yet created
):
self.nplayers = nplayers
self.onmove = onmove
if systems is None:
systems = []
alive = [None] * nplayers
self.systems = systems
if stash is None:
stash = Stash(nplayers + 1)
for sys in systems:
for m in sys.markers:
stash.request(m)
for s in sys.ships:
stash.request(s.piece)
self.stash = stash
if alive is None:
# This assumes that players with no home have been eliminated
alive = [False] * nplayers
for sys in systems:
if not sys.home is None:
alive[sys.home] = True
self.alive = alive
# This turn will be built one event as a time
self.curTurn = Turn(self)
def deepCopy(self):
systems = [s.deepCopy() for s in self.systems]
stash = self.stash.deepCopy()
alive = list(self.alive)
return HWState(self.nplayers, self.onmove, systems, stash, alive)
def creationOver(self):
return self.alive.count(None) == 0
def addSystem(self, system):
self.systems.append(system)
def removeSystem(self, system):
self.systems.pop(self.systems.index(system))
def findHome(self, player):
for sys in self.systems:
if sys.home == player:
return sys
# Player's home is missing
return None
def cancelTurn(self):
self.curTurn.undoAll()
def addEvent(self, e):
# Event should be a Creation, Action, Catastrophe, or Pass
# Fade and Elimination events are checked for and triggered here
self.curTurn.addEvent(e)
try:
e.enact(self)
except Exception as ex:
# Signal the turn that the event is cancelled
# This affects the turn's understanding of whether a sacrifice is occurring
try:
self.curTurn.undoLast()
except:
print(
'A problem occurred while resetting the turn. This could be a serious problem.'
)
print(str(ex))
raise ex
# Check for Fades (but not for home systems)
sys = e.getThreatenedSystem()
if (not sys is None) and (sys.home is None) and sys.isVoid():
fade = sys.getFade()
self.curTurn.addEvent(fade)
fade.enact(self)
def finishTurn(self):
# Checks for home system fades and eliminations
if not self.curTurn.isCompleted():
self.cancelTurn()
raise TurnNotOverException(
'Turn is not complete. Did you forget to pass an unwanted sacrifice action?'
)
# Check for elimination
# TODO this is better for huge numbers of players, but slower otherwise
# for player in self.curTurn.getThreatenedPlayers()
for player in range(self.nplayers):
# Check if player has been eliminated
if self.alive[player] != True:
# Player is either already known to be dead or hasn't created a home
continue
# Player is believed to be alive but may have just been eliminated
home = self.findHome(player)
abandoned = not home.hasPresence(player)
voided = home.isVoid()
if abandoned or voided:
# Player has been eliminated
elim = event.Elimination(player, self.onmove)
self.curTurn.addEvent(elim)
elim.enact(self)
if voided:
fade = home.getFade()
self.curTurn.addEvent(fade)
fade.enact(self)
def startNewTurn(self):
if self.isEnd():
raise Exception('State is at endpoint.')
self.advanceOnmove()
self.curTurn = Turn(self)
def advanceOnmove(self, d=1):
# set d=-1 to get previous player
self.onmove = self.getNextPlayer(d)
def getNextPlayer(self, d=1):
# set d=-1 to get previous player
i = (self.onmove + d) % self.nplayers
# TODO if current player is somehow dead, this is an endless loop
while self.alive[i] == False:
i = (i + d) % self.nplayers
return i
def getScores(self):
if not self.isEnd():
raise Exception('Game is not over.')
if self.alive.count(True) == 0:
return [1 / self.nplayers] * self.nplayers
scores = [0] * self.nplayers
scores[self.alive.index(True)] = 1
return scores
def saveTuple(self):
# Returns a tuple appropriate for saving the game
# Systems are not sorted, so not appropriate for comparing states
# Includes system names
stuples = [s.saveTuple() for s in self.systems]
return (self.onmove, tuple(self.alive), tuple(stuples))
def tuplify(self):
# Does not include system names, but systems are sorted
# Appropriate for comparing states
if not self.tupled is None:
return self.tupled
stuples = [s.tuplify() for s in self.systems]
stuples.sort()
self.tupled = (self.onmove, tuple(self.alive), tuple(stuples))
return self.tupled
def __hash__(self):
return self.calcHash()
def calcHash(self):
return hash(self.tuplify())
def isEnd(self):
# TODO implement other win conditions
if not self.creationOver():
return False
return self.alive.count(True) <= 1
def __eq__(self, other):
return self.tuplify() == other.tuplify()
def __str__(self):
divider = '/' * 30
movestr = 'Player %s to move' % self.onmove
stashStr = str(self.stash)
sysStr = ('\n%s\n' % divideSysStr).join([str(s) for s in self.systems])
return '%s\n%s\n%s\n%s\n%s' % (divider, movestr, stashStr, sysStr,
divider)
def buildStr(self):
return '<{}>;\n{}'.format(
self.onmove,
';\n'.join([sys.buildStr(self.nplayers) for sys in self.systems]))
def getConnections(self, sys):
# Return a list of systems connected to sys INCLUDING DISCOVERIES
# TODO remember connections so this doesn't have to keep getting called
connects = []
# Existing systems
for s in self.systems:
if s.connectsTo(sys):
connects.append(s)
# Discoveries
for size in piece.sizes:
for m in sys.markers:
if m.size == size:
break
else:
# Inner loop exited normally, discoveries may have this size
for c in colors:
if self.stash.isAvailable(c, size):
p = piece.Piece(size, c)
connects.append(System([p]))
return connects
def left(seconds):
"""left method"""
turn_lft = Turn()
turn_lft.left(seconds)
return jsonify({'result': "done", 'direction': '', 'drive_time': seconds})
def setUp(self):
self.a_turn = Turn(1, Player("maruko"), Card(Suit.CLUB, Rank.ACE))
class GameService(Service):
__model__ = Game
__schema__ = GameSchema()
__schema_many__ = GameSchema(many=True)
turn = Turn()
def get_open_games(self):
result = self.__model__.query.filter(Game.status == 'starting').all()
response = self.__schema_many__.dump(result)
return response.data
def create_game(self, request, player):
data = {'status': 'starting'}
game = Game(**data)
game.hosting = player
db.session.add(game)
self.__create_deck(game)
self.__create_board(game)
db.session.commit()
result = self.__schema__.dump(game)
return jsonify(result.data)
def join_game(self, game, player):
if not game:
return "Game does not exist"
if game.joining:
return "Already Full"
if game.hosting == player:
return "Cannot Join your own game"
game.joining = player
game.status = "In Progress"
game.turn = game.hosting
self.__add_join_to_board(game)
self.__initial_deal(game)
self.__add_end_spaces(game)
db.session.commit()
return 'Join %d' % game.id
def __create_deck(self, game):
card_types = ['UL', 'U', 'UR', 'DR', 'D', 'DL']
deck = []
for x in xrange(0, 72):
value = x % 6
card = dict(position=x, value=card_types[value], game=game)
result = Card(**card)
db.session.add(result)
color = ['']
for x in xrange(0, 12):
direction = x % 6
card = dict(position=72 + x,
value='P',
direction=card_types[direction],
game=game,
color=direction,
points=0)
result = Card(**card)
db.session.add(result)
db.session.commit()
# Kind of hacky, can be made better by calling all the cards in a game at once,
# update in objects, then commit to the database
for x in range(0, 84):
switch = random.randint(0, 83)
card1 = Card.query.filter_by(position=x).filter_by(
game=game).first()
card2 = Card.query.filter_by(position=switch).filter_by(
game=game).first()
card1.position = switch
card2.position = x
db.session.commit()
def __create_board(self, game):
for x in xrange(-5, 6):
for y in xrange(-4, 5):
if abs(y - x) < 5:
space = BoardSpace(x_loc=x, y_loc=y, game=game)
db.session.add(space)
def __add_join_to_board(self, game):
space1 = BoardSpace.get(-3, 1, game)
space2 = BoardSpace.get(-4, -2, game)
space3 = BoardSpace.get(-3, -4, game)
Meeple.add_meeple(game, game.joining, space1)
Meeple.add_meeple(game, game.joining, space2)
Meeple.add_meeple(game, game.joining, space3)
space4 = BoardSpace.get(3, -1, game)
space5 = BoardSpace.get(4, 2, game)
space6 = BoardSpace.get(3, 4, game)
Meeple.add_meeple(game, game.hosting, space4)
Meeple.add_meeple(game, game.hosting, space5)
Meeple.add_meeple(game, game.hosting, space6)
def __add_end_spaces(self, game):
space1 = BoardSpace.get(5, 1, game)
space2 = BoardSpace.get(5, 2, game)
space3 = BoardSpace.get(5, 3, game)
space4 = BoardSpace.get(5, 4, game)
space1.player = game.joining
space2.player = game.joining
space3.player = game.joining
space4.player = game.joining
space5 = BoardSpace.get(-5, -1, game)
space6 = BoardSpace.get(-5, -2, game)
space7 = BoardSpace.get(-5, -3, game)
space8 = BoardSpace.get(-5, -4, game)
space5.player = game.hosting
space6.player = game.hosting
space7.player = game.hosting
space8.player = game.hosting
def __initial_deal(self, game):
deck = game.deck.order_by(Card.position)
for x in range(0, 14):
if x % 2 == 0:
deck[x].player = game.hosting
else:
deck[x].player = game.joining
#Start Battle!
battle = Battle(pokemon1, pokemon2)
def ask_command(pokemon):
command = None
while not command:
# DO ATTACK -> attack 0
tmp_command = input("what should " + pokemon.name + " do?").split(" ")
if len(tmp_command) == 2:
try:
if tmp_command[0] == DO_ATTACK and 0 <= int(tmp_command[1]):
command = Command({DO_ATTACK: int(tmp_command[1])})
except Exception:
pass
return command
while not battle.is_finished():
#First ask for command
command1 = ask_command(pokemon1)
command2 = ask_command(pokemon2)
turn = Turn()
turn.command1 = command1
turn.command2 = command2
if turn.can_start():
#Execute turn
battle.execute_turn(turn)
battle.print_current_status()
class Game(object):
def __init__(self, playerList, sets):
self.log = []
allCards = []
for Set in sets:
allCards.extend(Set)
gameCards = sample(allCards,10) ## gets 10 random cards from inluded sets
numOfPlayers = len(playerList)
self.supply = BaseSupply(gameCards,numOfPlayers)
#print self.supply
self.players = [Player(name,self.supply) for name in playerList]
shuffle(self.players)
self.playerDict = dict()
self.playerStates = dict()
for player in self.players:
self.playerDict[player.name] = player
self.playerStates[player.name]= PlayerState(player,self)
self.firstTurn()
def firstTurn(self):
for player in self.players:
self.playerDict[player.name] = player
self.playerStates[player.name] = PlayerState(player, self)
self.round = 1
self.currentPlayer = self.players.pop(0)
self.firstPlayer = self.currentPlayer
self.log.append("Round 1")
self.currentTurn = Turn(self.currentPlayer, self.players, self.round, self.log, self)
def nextTurn(self):
self.currentTurn.cleanupPhase()
if self.supply.gameOver():
self.log.append("The Game is Over!!")
self.determineWinner()
self.players.append(self.currentPlayer)
self.currentPlayer = self.players.pop(0)
if self.currentPlayer == self.firstPlayer:
self.round += 1
self.log.append("Round %d" % (self.round))
self.currentTurn = Turn(self.currentPlayer, self.players, self.round, self.log, self)
def determineWinner(self):
winner = (None, 0)
for player in self.players:
vp = player.numOfVictoryPoints()
if vp > winner[1]:
winner = ([player], vp)
elif vp == winner[1]:
if winner[0]:
winner = (winner[1].append(player),winner[1])
else:
winner = ([player], vp)
winners = ''
for player in winner[0]:
if player == winner[0][-1]:
winners += player
else:
winners += player + " and "
self.log.append("%s Just won with %d Victory Points" % (winners, winner[1]))
for player in self.players:
if player not in winner[0]:
self.log.append("%s scored %d Victory Points" % (player.name, player.numOfVictoryPoints()))
def add_turn(self, player, card):
turn = Turn(self.turn_number_generator + 1, player, card)
# TODO: log the alternative?
if not any(existing_turn == turn for existing_turn in self.turns):
self.turn_number_generator += 1
self.turns.append(turn)
def startNewTurn(self):
if self.isEnd():
raise Exception('State is at endpoint.')
self.advanceOnmove()
self.curTurn = Turn(self)
def left(seconds):
"""left method"""
turn_lft = Turn()
turn_lft.left(seconds)
return jsonify({'result': "done", 'direction': '', 'drive_time': seconds})
def _turn2(self):
"""
The second turn will be used from the rear end!
"""
return Turn(self.params, self.turn2_ang)
def right(seconds):
"""right method"""
turn_rgt = Turn()
turn_rgt.right(seconds)
return jsonify({'result': "done", 'direction': '', 'drive_time': seconds})
action="store_true")
PARSER.add_argument(
'--direction', help='Set to 1 for clockwise and -1 for anti-clockwise', type=int, default=1)
PARSER.add_argument(
'--seconds', help='How long must the car drive', type=int, default=1)
PARSER.add_argument(
'--speed', help='How fast must the car drive', type=int, default=1)
ARGS = PARSER.parse_args()
# LOGLEVEL = ARGS.loglevel
DIRECTION = ARGS.direction
DIRECTION = -1 # backward
DRIVE_TIME = ARGS.seconds
WAIT_TIME = ARGS.speed / float(1000)
# set log level
if ARGS.verbose:
logging.getLogger().setLevel(logging.DEBUG)
AMOVE = Move()
AMOVE.drive_time = 2
AMOVE.run()
ATURN = Turn()
ATURN.drive_time = 2
ATURN.direction = -1
ATURN.run()
AMOVE = Move()
AMOVE.wait_time = 5
AMOVE.run()
def game():
scorecard = Scorecard()
while "empty" in scorecard.values.values():
turn = Turn()
turn.take_turn()
scorecard.show_scorecard()
while True:
choice = raw_input("What would you like to take?")
if choice == "quit":
return
if choice == "1s" and scorecard.values["1's"] != 'empty':
print "You have already taken 1's"
continue
if choice == "1s":
scorecard.take_1s(turn.dice_values)
break
if choice == "2s" and scorecard.values["2's"] != 'empty':
print "You have already taken 2's"
continue
elif choice == "2s":
scorecard.take_2s(turn.dice_values)
break
if choice == "3s" and scorecard.values["3's"] != 'empty':
print "You have already taken 3's"
continue
elif choice == "3s":
scorecard.take_3s(turn.dice_values)
break
if choice == "4s" and scorecard.values["4's"] != 'empty':
print "You have already taken 4's"
continue
elif choice == "4s":
scorecard.take_4s(turn.dice_values)
break
if choice == "5s" and scorecard.values["5's"] != 'empty':
print "You have already taken 5's"
continue
elif choice == "5s":
scorecard.take_5s(turn.dice_values)
break
if choice == "6s" and scorecard.values["6's"] != 'empty':
print "You have already taken 6's"
continue
elif choice == "6s":
scorecard.take_6s(turn.dice_values)
break
if choice == "3 of a kind" and scorecard.values[
"3 of a kind"] != 'empty':
print "You have already taken 3 of a kind"
continue
elif choice == "3 of a kind":
number = raw_input("Which number?")
number = int(number)
if turn.dice_values.count(number) < 3:
print "You don't have 3 of that number"
decision = raw_input(
"Do you still want to take 3 of a kind, [y/n]?")
if decision == "n":
continue
else:
scorecard.no_three_of_a_kind()
break
else:
scorecard.three_of_kind(turn.dice_values, number)
break
if choice == "4 of a kind" and scorecard.values[
"4 of a kind"] != 'empty':
print "You have already taken 4 of a kind"
continue
elif choice == "4 of a kind":
number = raw_input("Which number?")
number = int(number)
if turn.dice_values.count(number) < 4:
print "You don't have 4 of that number"
decision = raw_input(
"Do you still want to take 4 of a kind, [y/n]?")
if decision == "n":
continue
else:
scorecard.no_four_of_a_kind()
break
else:
scorecard.four_of_kind(turn.dice_values, number)
break
if choice == "low run" and scorecard.values["low run"] != 'empty':
print "You have already taken low run"
continue
elif choice == "low run":
scorecard.low_run(turn.dice_values)
break
if choice == "low run" and collections.Counter(
turn.dice_values) == collections.Counter([1, 2, 4, 5, 3]):
scorecard.low_run(turn.dice_values)
break
elif choice == "low run" and collections.Counter(
turn.dice_values) != collections.Counter([2, 3, 4, 5, 1]):
scorecard.no_low_run(turn.dice_values)
break
if choice == "high run" and scorecard.values["high run"] != 'empty':
print "You have already taken high run"
continue
if choice == "high run" and collections.Counter(
turn.dice_values) == collections.Counter([2, 3, 4, 5, 6]):
scorecard.high_run(turn.dice_values)
break
elif choice == "high run" and collections.Counter(
turn.dice_values) != collections.Counter([2, 3, 4, 5, 6]):
scorecard.no_high_run(turn.dice_values)
break
if choice == "full house" and scorecard.values[
"full house"] != 'empty':
print "You have already taken full house"
continue
if choice == "full house":
countvalues = collections.Counter(turn.dice_values)
if countvalues.values() == [2, 3] or countvalues.values() == [
3, 2
] or countvalues.values() == [5]:
scorecard.full_house(turn.dice_values)
break
else:
scorecard.no_full_house()
break
if choice == "sum" and scorecard.values["sum"] != 'empty':
print "You have already taken sum"
continue
elif choice == "sum":
scorecard.sum_of(turn.dice_values)
break
if choice == "yahtzee" and scorecard.values["yahtzee"] != 'empty':
print "You have already taken yahtzee"
continue
elif choice == "yahtzee" and collections.Counter(
turn.dice_values) == collections.Counter([6, 6, 6, 6, 6]):
scorecard.yahtzee(turn.dice_values)
break
elif choice == "yahtzee" and collections.Counter(
turn.dice_values) != collections.Counter([6, 6, 6, 6, 6]):
scorecard.noyahtzee(turn.dice_values)
break
scorecard.show_scorecard()
print "End of Game. Your final score is %s" % scorecard.total_score()
def do_turn(self, game, turns):
turn = Turn(game, turns)
return turn.do_turn()
def start_turn(self, command):
"""Create a new turn object with the given command."""
self.current_turn = Turn(command)
