def set_players(self):
self.player1 = Players.Player(self.left + 2,
(self.max_height - 1) * self.cell_size +
self.top + 2, 1, self.players_sprites)
self.player2 = Players.Player(
(self.max_width - 1) * self.cell_size + self.left + 2,
self.top + 2, 2, self.players_sprites)
def xPlyMaxn(gamestate, depth, maxdepth, max_score):
"""Return result of x-ply maxn search for best outcome."""
print("xPlyMaxn previewing:")
print(gamestate.board)
if depth == maxdepth or gamestate.isTerminal():
print("terminal/reached depth limit")
return Players.utility(gamestate)
else:
color = gamestate.turn
children = Players.expand(gamestate)
if len(children) != 0:
max_val = [-100, -100, -100, -100]
for child in children:
print("testing their move")
score = xPlyMaxn(child, depth + 1, maxdepth, max_score)
if score[color - 1] == max_score:
print("pruning")
return score
if score[color - 1] > max_val[color - 1]:
max_val = score
return max_val
else:
child = gamestate.duplicate()
child.update(list())
return xPlyMaxn(child, depth + 1, maxdepth, max_score)
def main():
#initializing game objects
sprite_obj = Sprites.Sprites()
player_obj = Players.Player()
asteroids_obj = Players.Asteroids()
event_handler_obj = AsteroidsGame.Event_Handler(player_obj)
draw_handler_obj = AsteroidsGame.Draw_Handler(sprite_obj, player_obj,
asteroids_obj)
state = 'blank screen'
while event_handler_obj['running']:
for event in pygame.event.get():
'''
instead of having a huge number of if-branches to assess the events, maybe
we can pass the event to an event handler which returns a dictionary/hash table
that describes the state of the game/player (i.e. {game_state: True, player_health: 100, etc...})
'''
event_handler_obj.action(event, draw_handler_obj)
draw_handler_obj['']
pygame.display.flip()
pygame.quit()
def maxn(gamestate, max_score):
"""Return result of maxn search for best outcome."""
# If gamestate is terminal, return vector of utility
if gamestate.isTerminal():
return Players.utility(gamestate)
else:
# Expand to list of child gamestates; do maxn on each and find max
color = gamestate.turn
children = Players.expand(gamestate)
if len(children) != 0:
max_val = [-100, -100, -100, -100]
for child in children:
score = maxn(child, max_score)
# If a child has the best possible score for a player,
# prune immediately and disregard other children
if score[color - 1] == max_score:
return score
if score[color - 1] > max_val[color - 1]:
max_val = score
return max_val
else:
# If no moves are possible but gamestate is not terminal,
# simply pass
new_gamestate = gamestate.duplicate()
new_gamestate.update(list())
return maxn(new_gamestate, max_score)
def set_teams(players: List[pl.Player]):
while True:
teams.clear()
try:
aux = input(colors['white'] + 'Which members of team A: ').split()
if len(aux) == len(players) / 2:
teamA = []
teamB = players
for a in aux:
teamA.append(pl.search_player(a, players))
teamB.remove(pl.search_player(a, players))
if len(teamA) != len(teamB):
raise ValueError(
"Teams do not have the same number of players")
teams.append(pl.Team(teamA))
teams.append(pl.Team(teamB))
print(teams[0].__str__())
if input('Reverse? ') == 'y':
teams[0].reverse()
pass
print(teams[1].__str__())
if input('Reverse? ') == 'y':
teams[1].reverse()
pass
return None
except ValueError:
print(colors['red'] +
'Teams do not have the same number of players')
def walk_all_the_way_to(pos):
while distance(Players.get_local().position, pos) > 10:
if Movement.get_run_energy() > 30 and not Movement.is_run_enabled():
Movement.toggle_run(True)
Movement.walk_to(pos)
time.sleep(1)
sleep_until(lambda: not Players.get_local().is_moving)
def antwoordcorrect():
global Ent_vraag
basic.screen.blit(correct, (1065, 260))
pygame.display.flip()
correctsound.play()
pygame.time.delay(1500)
Entvragen.remove(Ent_vraag)
Players.player_game(2) ## <- HIER TOEGEVOEDD [VERWIJDER COMMENT]
pygame.time.delay(3000)
def __init__(self, pm=PlayerManager([Players.Player("White", []), Players.Player("Black", [])])):
# Declarations
self.board = []
self.moves_made = []
self.PM = pm # Player Manager
self.PLAYERS = pm.get_players()
self.PIECE_DIRECTIONS = {f"{self.PLAYERS[0].get_color()}": 1, f"{self.PLAYERS[1].get_color()}": -1}
# Downwards is 1 and Upwards is -1
self.current_player = self.PLAYERS[0]
# Main
self.move_able = {}
self.new_board()
self.set_start_pieces()
self.selected_piece = None
def TimeEvent():
global race_info
# update effect status
for player in players:
Players.handleEffects(player)
diff = (datetime.now() - start_time)
race_info.Time = diff.seconds * 1000 + diff.microseconds / 1000
sender.sendUpdate(race_info, "RaceInfo")
if not shutdown:
timer = Timer(0.1, TimeEvent)
timer.start()
class Game():
def __init__(self, amountOfPlayers, amountOfDecks):
self.players = Players(amountOfPlayers)
self.deck=Deck(amount=amountOfDecks)
self.playedDeck=Deck()
self.activePlayer=self.players.GetCurrentValue()
#Clears the CL.
def ClearScreen(self):
os.system("cls")
#Sets up the starting conditions of the game. (7 cards for each player and 1 played card)
def SetStartConditions(self):
for i in range(7):
while(not self.players.Empty()):
self.players.GetCurrentValue().DrawCard(self.deck.DrawCard())
self.players.Next()
self.players.Reset()
self.playedDeck.AddExistingNode(self.deck.DrawCard())
#TODO Prints the basic ui.
def PrintBase(self):
#Change the type, not the string...
lastCard="Change me"
print("Last played card: " + lastCard.ToString())
print("Active player: "+self.activePlayer.name)
print("Your hand: ")
self.activePlayer.hand.PrintHand()
#TODO Defines player actions.
def PlayerAction(self):
x= input("enter to continue")
self.ClearScreen()
#TODO Switches the active player to the next player in the list.
def SwitchTurn(self):
self.players.Next()
#If what?
if():
self.players.Reset()
self.activePlayer=self.players.GetCurrentValue()
input("switch to player {}. Press enter to continue".format(self.activePlayer.name))
#TODO Basic gameloop.
def GameLoop(self):
while(True):
self.PrintBase()
self.PlayerAction()
self.SwitchTurn()
#TODO Game "Run" function.
def Run(self):
self.RandomizePlayerOrder()
self.SetStartConditions()
self.GameLoop()
#TODO Randomize the player order.
def RandomizePlayerOrder(self): pass
def run(self):
if self.currentscene.__name__ == "Menu":
self.currentscene = self.currentscene.gm.run()
if self.currentscene == "Start":
self.currentscene = Players.main()
elif self.currentscene == "Instructions":
self.currentscene = Instruction_menu.gm.run()
elif self.currentscene == "Highscore":
self.currentscene = Highscores.gm.run()
#print('placeholder')
elif self.currentscene == "Settings":
self.currentscene = Settings_menu.gm.run()
elif self.currentscene == "Quit":
self.quitgame()
if self.currentscene[2] == "Game":
self.currentscene = Game.mainloop(self.currentscene[0],
self.currentscene[1])
if self.currentscene == "Back":
self.currentscene = Menu
if self.currentscene == "pause":
self.safestate = self.currentscene
self.currentscene = Pausemenu.gm.run()
if self.currentscene == "Resume":
self.currentscene = Game.mainloop()
if self.currentscene == "Main menu":
self.currentscene = Menu
self.run()
def CreateActiveFoward(attributes):
firstName = attributes[0]
lastName = attributes[1]
jerseyNum = attributes[2]
height = attributes[3]
draftYear = attributes[4]
weight = attributes[5]
college = attributes[6]
points = attributes[7]
rebounds = attributes[8]
assists = attributes[9]
ftpct = attributes[10]
twoPtPct = attributes[11]
threePtPCt = attributes[12]
per = attributes[13]
offRating = attributes[14]
defRating = attributes[15]
age = attributes[16]
steals = attributes[17]
turnovers = attributes[18]
blocks = attributes[19]
team = attributes[20]
yearsExp = attributes[21]
ActiveFoward = Players.ActiveForward(firstName, lastName, jerseyNum, height, draftYear, weight, college, points, rebounds, assists, ftpct, twoPtPct, threePtPCt, per, offRating, defRating, age, steals, turnovers, blocks, team, yearsExp)
return ActiveFoward
def add_pirates(self, _name, _type):
if _type == "mage" or _type == "3":
_type = "mage"
self.players.append(Players.Mage([_name, _type,
self.player_count]))
elif _type == "rogue" or _type == "1":
_type = "rogue"
self.players.append(
Players.Rogue([_name, _type, self.player_count]))
elif _type == "warrior" or _type == "2":
_type = "warrior"
self.players.append(
Players.Warrior([_name, _type, self.player_count]))
self.player_count = self.player_count + 1
print(_type + " pirate: " + _name + " has joined " + self.name +
"'s band of merry pirates.\n")
def createPairing(size=C.teamsize):
# Define player details, Name and handicap
player_list = P.getPlayers()
# Get player names only
player_names = [entry['Name'] for entry in player_list]
# Randomiz order of playrs
random_player_list = np.random.permutation(player_names)
# Find possible teams, and represent it in a number
teams_list = itertools.combinations(random_player_list, size)
t_list = list(teams_list)
# Find non overlapping set of teams
possible_pairings = _randomTeamCombination(t_list, len(player_list), size)
result = []
for pairing in possible_pairings:
entry = {}
entry['players'] = pairing
entry['hc'] = _getHandicapForPlayers(pairing, player_list)
result.append(entry)
return {'pairings': result}
def simulateWeightedGame(self):
"""Simulate a game with random moves weighted by piece size, and return utility vector outcome."""
print("Simulating weighted random game..")
# Simulate game
gamestate = self.gamestate.duplicate()
while not gamestate.isTerminal():
moves = gamestate.listMoves()
randMove = Players.weightedRandomMove(moves)
gamestate.update(randMove)
# Update playout and win count in self
utility_vector = Players.utility(gamestate)
self.updateStats(utility_vector)
# Return utility vector for backpropagation
return utility_vector
def __init__(self):
self._board = Board.Board()
self._red_player = Players.Player('red')
self._blue_player = Players.Player('blue')
self._game_over = False
self._player_in_check = None
self._turn = 'blue'
self._captured_pieces = []
self._move_log = []
for i, piece in enumerate(self._red_player.get_player_pieces()):
self._board.set_board(self._red_player.get_initial_placements()[i],
piece)
piece.set_location(self._red_player.get_initial_placements()[i])
for i, piece in enumerate(self._blue_player.get_player_pieces()):
self._board.set_board(
self._blue_player.get_initial_placements()[i], piece)
piece.set_location(self._blue_player.get_initial_placements()[i])
def InitializePlayers(self, stacks, counts):
if not stacks:
stacks = [1000] * self.Nplayers
if not counts:
counts = [0] * self.Nplayers
players = []
for i, (stack, count) in enumerate(zip(stacks, counts)):
players.append(Players.Player(f'Player{i}', stack, count=count))
return players
def Game(decks, players):
# Shuffle the given cards and give them all values
card_translate = {
"2": 2,
"3": 3,
"4": 4,
"5": 5,
"6": 6,
"7": 7,
"8": 8,
"9": 9,
"10": 10,
"J": 10,
"Q": 10,
"K": 10,
"A": 11
}
cards = Functions.Shuffle(decks)
while len(cards) > (players + 1) * 6:
# Players play their turns
gcards = [cards[0], cards[1]]
del cards[0]
del cards[0]
player_1 = Players.Player(card_translate, 1, cards, gcards)
# Deler's turn
gcards = [cards[0], cards[1]]
del cards[0]
del cards[0]
deler = Players.Deler(card_translate, cards, gcards)
# For testing, write who won and lost
if deler > player_1:
print("Player 1 Lost")
elif deler < player_1:
print("Player 1 Won")
else:
print("Player 1 tied with the deiler")
print(
"----------------------------------------------------------------------------"
)
def __init__(self):
super(MainWindow, self).__init__()
# Variables:
self.game = Game.TicTacToe(Players.HumanPlayer(), Players.QPlayer())
self.game.returnMoveToGUI = self.drawMoveOnBoard
self.game.signalGUItoReset = self.informUserGameEnded
# Qt window
self.setWindowTitle("Tic Tac Toe Game")
self.buttongrid = QtWidgets.QWidget(self)
self.setCentralWidget(self.buttongrid)
self.frame = QtWidgets.QFrame(self.buttongrid)
self.frame.setGeometry(QtCore.QRect(0, 0, 3*buttonWidth, int(3.5*buttonWidth)))
self.frame.setFrameShape(QtWidgets.QFrame.NoFrame)
self.frame.setFrameShadow(QtWidgets.QFrame.Plain)
self.frame.setLineWidth(0)
self.grid = QtWidgets.QGridLayout(self.frame)
# Start a new game
self.newGameButton = QtWidgets.QPushButton("New Game")
self.newGameButton.setMinimumSize(QtCore.QSize(buttonWidth, 8))
self.newGameButton.clicked.connect(self.reset)
self.grid.addWidget(self.newGameButton, 0, 0)
# Find all player classes:
playerClasses = [x for x in dir(Players) if isclass(getattr(Players, x)) and 'Player' in x and 'Basic' not in x and 'Brain' not in x]
self.choosePlayerComboBox = QtWidgets.QComboBox()
for player in playerClasses:
self.choosePlayerComboBox.addItem(player)
self.choosePlayerComboBox.setMinimumSize(QtCore.QSize(buttonWidth, 8))
self.choosePlayerComboBox.setCurrentIndex(0)
self.choosePlayerComboBox.activated.connect(self.loadNewPlayer)
self.grid.addWidget(self.choosePlayerComboBox, 0, 1)
# Add game buttons
for i in range(0,self.game._rows):
for j in range(0, self.game._cols):
newButton = TicTacToeButton((i,j), self.game.gameIsBusy, self.game.play, self.game.humanPlayerMoved)
newButton.setFont(QtGui.QFont('Helvetica', 60))
self.grid.addWidget(newButton, i+1, j)
self.setGeometry(300, 300, 3*buttonWidth + 5, 3*buttonHeight + 60)
def assign_roles(self):
print("assigning roles...")
exe = []
for person in self.players:
role = Players.assign_role(person)
self.send(person, f"You are a {role.name}")
self.roles[person] = role
if role.name == "Executioner":
exe.append(role)
# give executioners their targets
for e in exe:
e.assign_target()
def __init__(self, filepath, w, h):
self.data = {}
replay = DecodeReplay(filepath)
self.data["window"] = w, h
self.data["replay"] = replay.data
self.data["map"] = GenMap(replay.data)
self.data["dynamic"] = DynamicElements(replay.data)
self.data["players"] = Players(replay.data)
h, w = self.data["map"].data["height"], self.data["map"].data["width"]
self.data["height"], self.data["width"] = h, w
self.data["follow"] = False
self.data["end"] = float(replay.data["gameEndsAt"][0]) / 1000
self.ended = False
def get_player(player_type):
players = {
'random': Players.RandomPlayer(),
'manual': Players.ManualPlayer(),
'monte_carlo': Players.MonteCarloPlayer(100),
'minimax': Players.MinimaxPlayer(4),
'en_masse': Players.EnMassePlayer(),
'flanking': Players.FlankingPlayer(),
'aggressive': Players.AggressivePlayer(),
}
return players[player_type]
def __init__(self,
deck,
Nplayers=1,
players=None,
stacks=None,
counts=None):
self.deck = deck
self.ncards = len(self.deck)
self.Nplayers = Nplayers
self.players = players
if not players:
self.players = self.InitializePlayers(stacks, counts)
self.nplayers = self.players
self.dealer = Players.Dealer()
def expand(self):
"""Expand a random unvisited child from node, play out simulation, update stats, and return utility vector result."""
if self.gamestate.isTerminal():
utilityVector = Players.utility(self.gamestate)
self.updateStats(utilityVector)
return utilityVector
unexplored_moves = self.gamestate.listMoves()
for move, child in self.children.items():
try:
unexplored_moves.remove(move)
except ValueError:
pdb.set_trace()
print("Moves remaining:")
print(unexplored_moves)
print("Testing:")
randMove = Players.weightedRandomMove(unexplored_moves)
print(randMove)
# Expand
new_gamestate = self.gamestate.duplicate()
new_gamestate.update(randMove)
self.children[randMove] = MCNode(new_gamestate, parent=self)
new_node = self.children[randMove]
# Run simulation from new node
sim_result = new_node.simulateWeightedGame()
# Update own stats with this result
self.updateStats(sim_result)
# Update fullyExpanded if necessary
if len(unexplored_moves) == 1:
self.fullyExpanded = True
# Return result of simulation (utility vector) for backpropagation
return sim_result
def __init__(self, parent=None):
super(MainWindow, self).__init__(parent)
self.setWindowTitle("Main Window")
self.player = Players.Player()
explorer = FileSystemMediaExplorer("d:\\", self.rootContext,
self.player)
self.rootContext().setContextProperty('player', self.player)
self.rootContext().setContextProperty('mediaListModel',
explorer.MediaList)
self.rootContext().setContextProperty('mediaExplorer', explorer)
# Renders 'view.qml'
self.setSource(QUrl.fromLocalFile('QML/main.qml'))
# QML resizes to main window
self.setResizeMode(QDeclarativeView.SizeRootObjectToView)
def maxn_getMove(gamestate, max_score):
"""Wrapper for maxn search - return result of search."""
color = gamestate.turn
moves = gamestate.listMoves()
children = Players.expandFromList(gamestate, moves)
if len(children) != 0:
max_val = -100
max_val_index = -1
for i in range(0, len(children)):
score = maxn(children[i], max_score)[color - 1]
if score == max_score:
return moves[i]
if score > max_val:
max_val = score
max_val_index = i
return moves[max_val_index]
else:
return list()
def simulateGame(self):
"""Simulate a random game starting from this node, and return utility vector outcome."""
print("Simulating random game..")
# Simulate game
gamestate = self.gamestate.duplicate()
while not gamestate.isTerminal():
moves = gamestate.listMoves()
randMove = random.choice(moves)
gamestate.update(randMove)
# Update playout and win count in self
utility_vector = Players.utility(gamestate)
self.updateStats(utility_vector)
# Return utility vector for backpropagation
return utility_vector
def simulateGameWithFirstMoves(self):
"""Simulate a game where players pick first moves, and return utility vector outcome."""
print("Simulating game with first moves...")
# Simulate game
gamestate = self.gamestate.duplicate()
while not gamestate.isTerminal():
move = gamestate.canMove()
if not move == False:
gamestate.update(move)
else:
gamestate.update('pass!')
# Update playout and win count in self
utility_vector = Players.utility(gamestate)
self.updateStats(utility_vector)
# Return utility vector for backpropagation
return utility_vector
def playGame(startLevel, profiles):
if startLevel == "VS":
CONSTANTS["MODE"] = "VS"
else:
CONSTANTS["MODE"] = "MAIN"
grid = Grid.Grid(startLevel)
players = Players.Players(profiles)
ballStruct = Balls.BallStruct()
effects = Effects.EffectStruct()
_done = False
while not _done:
for ev in pygame.event.get():
if ev.type == QUIT:
players.forceQuit()
return "QUIT"
elif ev.type == KEYDOWN and ev.key == K_ESCAPE:
players.forceQuit()
return
else:
players.handleEvent(ev, grid, ballStruct)
if grid.isDone():
return
effects.update()
grid.update(players, ballStruct, effects)
ballStruct.update(grid, players, effects)
players.update(grid, ballStruct)
grid.drawMe()
players.drawMe()
effects.drawMe()
ballStruct.drawMe()
#pygame.draw.rect(getConst("SURFACE"), [255, 255, 255], [0, 0, getConst("SCREENSIZE")[0] - 1, getConst("SCREENSIZE")[1] - 1], 1)
pygame.display.update()
getConst("SURFACE").fill([0] * 3)
pygame.time.Clock().tick(40)
def createActiveGuard(attributes):
firstName = attributes[0]
lastName = attributes[1]
jerseyNum = attributes[2]
height = attributes[3]
draftYear = attributes[4]
weight = attributes[5]
college = attributes[6]
points = attributes[7]
assists = attributes[8]
ftpct = attributes[9]
twoPtPct = attributes[10]
threePtPCt = attributes[11]
per = attributes[12]
offRating = attributes[13]
defRating = attributes[14]
age = attributes[15]
steals = attributes[16]
turnovers = attributes[17]
yearsExp = attributes[18]
team = attributes[19]
activeGuard = Players.ActiveGuard(firstName, lastName, jerseyNum, height, draftYear, weight, college, points, assists, ftpct, twoPtPct, threePtPCt, per, offRating, defRating, age, steals, turnovers, yearsExp, team)
return activeGuard
def CreateActiveCenter(attributes):
firstName = attributes[0]
lastName = attributes[1]
jerseyNum = attributes[2]
height = attributes[3]
draftYear = attributes[4]
weight = attributes[5]
college = attributes[6]
points = attributes[7]
assists = attributes[8]
ftpct = attributes[9]
twoPtPct = attributes[10]
threePtPCt = attributes[11]
per = attributes[12]
offRating = attributes[13]
defRating = attributes[14]
age = attributes[15]
blocks = attributes[16]
offRebounds = attributes[17]
defRebounds =attributes[18]
yearsExp = attributes[19]
team = attributes[20]
activeCenter = Players.ActiveCenter(firstName, lastName, jerseyNum, height, draftYear, weight, college, points, assists, ftpct, twoPtPct, threePtPCt, per, offRating, defRating, age, blocks, offRebounds, defRebounds, yearsExp, team)
return activeCenter
def ControllerEvent(player, event, data, packet_id):
global race_info
global players
global last_id
global player_infos
packet_id = int(packet_id)
# did packet arrive in order?
try:
if packet_id < last_id:
print "Discarding packet %d, last_received %d" % (packet_id, last_id)
return
except Exception as e:
print e
last_id = packet_id
if (DEBUG and race_info.State != LAP_SELECT):
try:
print "Received controller event (Player %s State %d)" % (player, race_info.State)
except Exception as e:
print e
player = int(player)
#Bail if there's an invalid player
if (player < 0 or player > Players.MAX_PLAYERS):
if DEBUG:
print "Invalid player, should be >= 0 and < %d" % Players.MAX_PLAYERS
return
event = int(event)
data = int(data)
#don't send a packet unless necessary
send = False
if race_info.State == JOINING:
if DEBUG:
print "Joining event=%d data=%d" % (event, data)
# If player hasn't joined and pressed A, join them
if event == BUT_A and data == 1 and players[player] == None:
print "Player %d is now ready" % (player + 1)
players[player] = Players.PlayerState()
player_infos[player] = PlayerInfo(race_info.JoinedPlayers + 1)
race_info.JoinedPlayers += 1
sender.sendUpdate(race_info, "RaceInfo")
# If joined player presses start, begin lap count selection
if event == START and data == 1 and players[player] != None:
print "Starting with current players"
race_info.State = LAP_SELECT
sender.sendUpdate(race_info, "RaceInfo")
# Ignoring all other input in this state
elif DEBUG:
print "Ignoring input until race begins"
return
elif race_info.State == LAP_SELECT:
# If player pressed up, increase lap count
if event == UD and data == -32767 or event == DUP and data == 1:
race_info.Laps += 1
# If player pressed down, decrease lap count
elif event == UD and data == 32767 or event == DDOWN and data == 1:
race_info.Laps -= 1
# Ensure at least one lap
if race_info.Laps < 1:
race_info.Laps = 1
# If player pressed start, begin the countdown
elif event == START and data == 1:
race_info.State = COUNTDOWN
sender.sendUpdate(race_info, "RaceInfo")
print
return
# Erase the current line, and return to the beginning
print "%s[2K\r" % chr(27),
# Prompt for number of laps
print "Please select number of Laps: %d" % race_info.Laps,
# Force buffer to flush (needed because no newline terminating print)
sys.stdout.flush()
sender.sendUpdate(race_info, "RaceInfo")
elif race_info.State == COUNTDOWN:
return
elif race_info.State == FINISHED:
if event == START and data == 1:
# reset all the players stats
for pl in players:
if pl != None:
pl.init()
race_info.State = JOINING
race_info.Time = 0
sender.sendUpdate(race_info, "RaceInfo")
return
if (event == ACCEL):
players[player].forward = data
send = True
if (event == BRAKE):
players[player].reverse = data
send = True
if (event == LR):
send = True
# Parse xbox controller data
if data == -32767:
players[player].turn = -1
if data == 0:
players[player].turn = 0
if data == 32767:
players[player].turn = 1
print "Player turn", players[player].turn, player, player_infos
player_infos[player].Turn == players[player].turn
print player_infos[player].Turn
print "updated"
if event == BUT_A and data == 1 and players[player].powerup != None:
# Player fired a powerup
triggerPowerup(player)
print "F: %d R: %d" % (players[player].forward, players[player].reverse)
if send:
print "Beginning of controller event"
speed2 = players[player].forward - players[player].reverse
#Deal with player effects
Players.handleEffects(player)
players[player].speed_percent = Players.DEFAULT_SPEED_PERCENT
speed2 = int(speed2 * players[player].speed_percent)
#enforce speed boundaries
if (speed2 > Players.MAX_SPEED):
speed2 = Players.MAX_SPEED
if (speed2 < Players.MIN_SPEED):
speed2 = Players.MIN_SPEED
#update speed info for the GUI
player_infos[player].Speed = speed * 100.0 / (MAX_SPEED * DEFAULT_SPEED_PERCENT)
sender.sendUpdate(player_infos[player], "PlayerInfo" + str(player_infos[player].Number))
try:
if (DEBUG):
print "Player: %d, Speed=%d, Turn=%d" % (player, speed2, players[player].turn)
sender.sendAsync("CarEvent", player=str(int(player_infos[player].Number)), speed=str(speed2), turn=str(players[player].turn))
if (DEBUG):
print "Packet Sent"
except Exception as e:
print e
