def apply_command_session(self, cmd):
coords = cmd[1]
coord = cmd[2]
obs_coords = cmd[3]
self.logger.add_message("Session starting !")
players_coords = coords.split("|")
for p in players_coords:
[name, pos] = p.split(":")
pos = parse_coord(pos)
if (name in self.arena.players):
self.arena.players[name].reset()
self.arena.players[name].moveTo(pos[0], pos[1])
self.arena.players[name].to_display = True
else:
self.arena.players[name] = Player("enemy.png", name, pos, True)
goals_coord = coord.split("|")
goalx, goaly = parse_coord(goals_coord[0])
if (len(goals_coord) == 2):
nextgoalx, nextgoaly = parse_coord(goals_coord[1])
self.arena.next_goal = Goal(nextgoalx, nextgoaly, True)
self.arena.goal = Goal(goalx, goaly)
if (len(obs_coords) > 0):
for o in obs_coords.split("|"):
pos = parse_coord(o)
self.arena.obstacles.append(Obstacle(pos[0], pos[1]))
self.session_state = "jeu"
def set_goal(self, goal):
"""Sets the goal of the dice to be used as a default for rolls.
"""
if isinstance(goal, Goal):
self.__goal = goal
else:
self.__goal = Goal(value=goal)
def __check_goal(self):
"""Dice's goal should be checked by Goal class verification.
"""
if isinstance(self.__goal, Goal):
self.__goal.check_vars()
elif self.__goal != None:
self.__goal = Goal(self.__goal)
def apply_command_welcome(self, cmd):
phase = cmd[1]
scores = cmd[2]
coord = cmd[3]
obs_coords = cmd[4]
if (phase == "attente"):
self.logger.add_message("Waiting to start session")
self.logger.add_message("Type /race to start a race next")
self.session_state = "attente"
elif (phase == "jeu" or phase == "ingame_race"):
self.logger.add_message("Joining a game")
self.session_state = "jeu"
goals_coord = coord.split("|")
goalx, goaly = parse_coord(goals_coord[0])
if (len(goals_coord) == 2):
nextgoalx, nextgoaly = parse_coord(goals_coord[1])
self.arena.next_goal = Goal(nextgoalx, nextgoaly, True)
else:
self.arena.next_goal = None
self.arena.goal = Goal(goalx, goaly)
self.main_player.to_display = False # Wait to get coord before displaying
for s in scores.split("|"):
[name, score] = s.split(":")
if (name in self.arena.players):
self.arena.players[name].score = int(score)
else:
new_player = Player("enemy.png", name)
new_player.score = int(score)
self.arena.players[name] = new_player
if (len(obs_coords) > 0):
for o in obs_coords.split("|"):
pos = parse_coord(o)
self.arena.obstacles.append(Obstacle(pos[0], pos[1]))
def __init__(self, owner):
Goal.__init__(self, owner)
self.process = None
self._child_conn = multiprocessing.Pipe()
self._term_event = multiprocessing.Event()
self.process = multiprocessing.Process()
self._start_time = None
def getGoalArea(image):
gol = Goal()
tol = gol.find_goal_single_image(image)
print("goal is at x = {}".format(tol))
area = tol[2] * tol[3]
print("The area is {}".format(area))
return area
def gen_goals(self, verbose): arsonist = self.free_arsonist() anomalous = self.mem.get(self.memKeys.MEM_ANOM) anomalous = anomalous and anomalous[-1] if arsonist and anomalous: goal = Goal(Goal.GOAL_APPREHEND, [arsonist]) goal.priority = 2 #highest used return [goal] return []
def initialize_agent(self):
"""Initializing all parameters which require the field info"""
self.my_goal = Goal(self.team, self.get_field_info())
self.their_goal = Goal(1 - self.team, self.get_field_info())
init_boostpads(self)
"""Setting all the mechanics to not none"""
self.drive = Drive(self.info.my_car)
self.dodge = Dodge(self.info.my_car)
self.halfflip = HalfFlip(self.info.my_car)
def __init__(self, type):
if type == "skills":
self.goals.append(Goal(["blue", "blue"]))
self.goals.append(Goal(["blue"]))
self.goals.append(Goal(["blue", "blue"]))
self.goals.append(Goal(["blue"]))
self.goals.append(Goal(["blue", "blue", "blue"]))
self.goals.append(Goal(["blue"]))
self.goals.append(Goal(["blue", "blue"]))
self.goals.append(Goal(["blue"]))
self.goals.append(Goal(["blue", "blue"]))
self.rows.append(Row([self.goals[0], self.goals[1],
self.goals[2]]))
self.rows.append(Row([self.goals[3], self.goals[4],
self.goals[5]]))
self.rows.append(Row([self.goals[6], self.goals[7],
self.goals[8]]))
self.rows.append(Row([self.goals[0], self.goals[3],
self.goals[6]]))
self.rows.append(Row([self.goals[1], self.goals[4],
self.goals[7]]))
self.rows.append(Row([self.goals[2], self.goals[5],
self.goals[8]]))
self.rows.append(Row([self.goals[0], self.goals[4],
self.goals[8]]))
self.rows.append(Row([self.goals[2], self.goals[4],
self.goals[6]]))
def delete_goal(self, goal_id):
user_node = self.user_node
goal = Goal()
goal.id = goal_id
# have to remove all relationships before deleteing a node
goal.delete_all_interests()
goal_node = goal.goal_node
user_goal_rel = self._graph_db.match_one(start_node=user_node,
rel_type=GraphRelationship.HAS_GOAL,
end_node=goal_node)
self._graph_db.delete(user_goal_rel)
self._graph_db.delete(goal_node)
def gen_goals(self, verbose): world = self.mem.get(self.memKeys.MEM_STATES)[-1] block = self.random_fired_block(world) if not block: return [] blocks = blockstate.get_block_list(world) for realblock in blocks: if realblock.id == block.name: block = realblock break goal = Goal(Goal.GOAL_NO_FIRE, [block]) goal.priority = 1 #higher than stacking return [goal]
def apply_command_newobj(self, cmd):
coord = cmd[1]
scores = cmd[2]
for s in scores.split("|"):
[name, score] = s.split(":")
self.arena.players[name].score = int(score)
goals_coord = coord.split("|")
goalx, goaly = parse_coord(goals_coord[0])
if (len(goals_coord) == 2):
nextgoalx, nextgoaly = parse_coord(goals_coord[1])
self.arena.next_goal = Goal(nextgoalx, nextgoaly, True)
else:
self.arena.next_goal = None
self.arena.goal = Goal(goalx, goaly)
def createWalls(self):
for y in range(self.canv.getHeight()):
for x in range(self.canv.getWidth()):
if(x==0 or y==0 or y == self.canv.getHeight() -1):
self.walls.append(Wall(x,y))
if( x == self.canv.getWidth()-1):
self.goals.append(Goal(x,y))
def creategoal(self, goalimagelist, worth, name):
"""
Create a new goal object (recursive until no longer blocked)
:param goalimagelist: (Dict) Dict of images to create the goal (should contain one, keyed on 'image'))
:param worth: (int) Points value of the goal
:param name: (string) Name of the goal
:return: (Goal) Goal object
"""
goal = Goal(goalimagelist, worth, name, self.screen.get_width(), self.screen.get_height())
if not pygame.sprite.spritecollide(goal, self.blocklist, False, pygame.sprite.collide_circle):
self.blocklist.add(goal)
else:
goal.kill()
goal = self.creategoal(goalimagelist, worth, name)
return goal
def __init__(self, environment_width, environment_height):
self.white = (255,255,255)
self.environment_width = environment_width
self.environment_height = environment_height
pygame.init()
self.game_display = pygame.display.set_mode((environment_width, environment_height))
self.clear_screen()
self.goal_x = environment_width // 2
self.goal_y = 30
self.goal_radius = 5
self.goal = Goal(self.goal_x, self.goal_y, self.goal_radius, self.game_display)
self.population = Population(environment_width, environment_height, self.goal_x, self.goal_y, self.goal_radius, self.game_display)
self.obstacle = Obstacle(environment_width, environment_height, self.game_display)
def __check_goal(self):
"""Dice's goal should be checked by Goal class verification.
"""
if isinstance(self.__goal, Goal):
self.__goal.check_vars()
elif self.__goal != None:
self.__goal = Goal(self.__goal)
def main_loop():
screen = pygame.display.set_mode((WIDTH, HEIGHT))
font = pygame.font.SysFont("dejavusansmono", 17)
clock = pygame.time.Clock()
game_loop = True
generation = font.render("Population: 1", True, (0, 0, 0))
gen_rect = generation.get_rect()
gen_rect.center = (WIDTH - 90, 15)
dots = Population(400, BRAIN_SIZE)
goal = Goal(int(WIDTH / 2), 20)
obstacles = Obstacle_Generator(level=2)
while game_loop:
for event in pygame.event.get():
if event.type == pygame.QUIT:
game_loop = False
if dots.all_dead():
dots.calculate_fitness(goal)
dots.natural_selection(BRAIN_SIZE, MUTATION_RATE)
generation = font.render("Population: {}".format(dots.generation),
True, (0, 0, 0))
else:
dots.update(WIDTH, HEIGHT, goal, obstacles)
draw_window(screen, dots, goal, obstacles, generation, gen_rect)
clock.tick(FPS)
def set_goal(self, goal):
"""Sets the goal of the dice to be used as a default for rolls.
"""
if isinstance(goal, Goal):
self.__goal = goal
else:
self.__goal = Goal(value=goal)
def __init__(self):
self.bg = pygame.image.load("images/bg.jpg")
self.bg = pygame.transform.scale(self.bg,
(SCREEN_WIDTH, SCREEN_HEIGHT))
self.bgrect = self.bg.get_rect()
self.ball = Ball()
self.human = Human()
self.robot = Robot()
self.goal = Goal(0)
self.win = Win(0)
self.lose = Lose(0)
self.menu = Menu()
self.mouse = (0, 0)
self.sounds = Sounds()
self.sounds.music()
self.status = Game.MENU
self.reset()
def __check_goal(self):
"""A goal should either be a Goal object or an integer that is then
used to create a Goal object.
"""
if isinstance(self.goal, Goal):
return
else:
self.goal = Goal(self.goal)
def __init__(self, size, x, y):
self.setup_done = False
self.start = None
self.turtles = []
self.fitness_sum = 0
self.gen = 1
self.best_turtle = None
self.original_x = x
self.original_y = y
self.min_step = size
self.size = size
self.is_changing = False
for i in range(size):
self.turtles.append(EvolvingTurtle(x, y, self))
self.goal = Goal(0, 275)
self.setup_done = True
print(f"Generation {self.gen}")
def buildGoal(self, e, pos, relation, restriction):
''' create a goal based on a pair of objects or lists of objects
by adding relations to a new goal'''
ori,dst,q = e
if isinstance(ori, basestring): ori = [ori]
if isinstance(dst, basestring): dst = [dst]
g = Goal()
if restriction and (restriction[0] not in ori + dst):
g.addRestriction(restriction[0],restriction[1])
if q == 'any' and "".join(sorted(ori)) == "".join(sorted(dst)):
dst.pop()
for o in ori:
if q == 'any':
n_dst = copy.deepcopy(dst)
nn_dst = copy.deepcopy(n_dst)
for d in n_dst:
if d == o or not Physics().checkPhysicalLaws(o, d, relation, False):
nn_dst.remove(d)
if len(nn_dst) > 0:
g.addRelation(o,nn_dst,pos)
else:
for d in dst:
if d == o or not Physics().checkPhysicalLaws(o, d, relation, False):
return None
g.addRelation(o,d,pos)
if not len(g.relations):
return None
return g
def setUp(self) :
board, = Board.load_from_json(GRID_FILENAME)
robots = Robot_group()
r1 = Robot(robots, RColors.RED, (5,0))
r2 = Robot(robots, RColors.BLUE, (11,1))
r3 = Robot(robots, RColors.GREEN, (2,15))
r4 = Robot(robots, RColors.YELLOW, (10,13))
goal = Goal(RColors.RED, (0,7))
self.game = Game(board,robots,goal)
def add_goal(self, goal_properties):
"""
Add goal to user
:param goal_id: string uuid
:return: List of user goals
"""
#TODO exception handling
goal = Goal()
goal.set_goal_properties(goal_properties=goal_properties)
goal.create_goal()
# create relationship between user and interest node
user_goal_relationship = Relationship(self.user_node,
GraphRelationship.HAS_GOAL,
goal.goal_node)
self._graph_db.create_unique(user_goal_relationship)
#TODO set properties on the relationship -- may use a unique id as the key
return self.user_goals
def user_goals(self):
""" get user interests
:return: list of interests
"""
#TODO do not need a list of interests -- HATEOAS -- MMD 3/8/2015
user_goals = self._graph_db.match(start_node=self.user_node, rel_type=GraphRelationship.HAS_GOAL,
end_node=None)
goals_list = []
goal_interests_list = []
for rel in user_goals:
goal_properties = dict(rel.end_node.properties)
goal = Goal()
goal.id = goal_properties['id']
interests = goal.goal_interests
interests_list = []
for interest in interests:
interests_list.append(interest['name'])
goal_properties['interests'] = interests_list
goals_list.append(goal_properties)
return goals_list
def initialize_goals():
np.random.seed(SEED_GOAL)
goals = []
for i in range(INITIAL_GOALS):
pos_x = np.random.randint(0, GRID_HEIGHT)
pos_y = np.random.randint(0, GRID_WIDTH)
goal = Goal(pos_x,
pos_y,
id=i,
capacity=np.random.randint(1, MAX_GOAL_CAPACITY))
goals.append(goal)
return goals
def composition(nodes: Set[Node], name: str = None, description: str = None) -> Node:
try:
new_goal = Goal.composition(nodes, name, description)
except GoalException as e:
raise CGGOperationFail(nodes=nodes, operation=CGGFailOperations.algebra_op, goal_ex=e)
new_node = Node(goal=new_goal)
new_node.add_children(link=Link.COMPOSITION, nodes=set(nodes))
return new_node
def disjunction(nodes: Set[Node], name: str = None, description: str = None) -> Node:
try:
new_goal = Goal.disjunction(nodes, name, description)
except GoalException as e:
raise CGGOperationFail(nodes=nodes, operation=CGGFailOperations.algebra_op, goal_ex=e)
new_node = Node(goal=new_goal)
new_node.add_children(link=Link.DISJUNCTION, nodes=nodes)
return new_node
class Environment():
def __init__(self, environment_width, environment_height):
self.white = (255,255,255)
self.environment_width = environment_width
self.environment_height = environment_height
pygame.init()
self.game_display = pygame.display.set_mode((environment_width, environment_height))
self.clear_screen()
self.goal_x = environment_width // 2
self.goal_y = 30
self.goal_radius = 5
self.goal = Goal(self.goal_x, self.goal_y, self.goal_radius, self.game_display)
self.population = Population(environment_width, environment_height, self.goal_x, self.goal_y, self.goal_radius, self.game_display)
self.obstacle = Obstacle(environment_width, environment_height, self.game_display)
def update(self):
for event in pygame.event.get():
if event.type == pygame.QUIT:
pygame.quit()
quit()
if self.population.are_all_dots_dead():
fitness_sum = self.population.calculate_fitness_sum()
self.population.natural_selection(fitness_sum)
self.population.mutate_offsprings()
else:
self.clear_screen()
self.obstacle.show()
self.goal.show()
self.population.update()
pygame.time.wait(20)
pygame.display.update()
def clear_screen(self):
self.game_display.fill(self.white)
def _random_valid_moves(block: Block, goal: Goal) -> \
Tuple[Optional[Tuple[str, Optional[int], Block]], int]:
"""
This is a helper functions for the generate_move methods for both Random
Player and Smart Player that takes the player's goal a blocks then returns
a random valid move that can be preformed on the block
"""
temp_board = block.create_copy()
random_level = random.randint(0, block.max_depth)
random_position_x = random.randint(0, block.position[0] + block.size)
random_position_y = random.randint(0, block.position[1] + block.size)
new_block = _get_block(temp_board, (random_position_x, random_position_y),\
random_level)
if new_block:
new_block = new_block.create_copy()
else:
return _random_valid_moves(block, goal)
random_move = random.randint(1, 7)
if random_move == 1:
if new_block.rotate(1):
score = goal.score(temp_board)
return _create_move(ROTATE_CLOCKWISE, new_block), score
if random_move == 2:
if new_block.rotate(3):
score = goal.score(temp_board)
return _create_move(ROTATE_COUNTER_CLOCKWISE, new_block), score
if random_move == 3:
if new_block.swap(0):
score = goal.score(temp_board)
return _create_move(SWAP_HORIZONTAL, new_block), score
if random_move == 4:
if new_block.swap(1):
score = goal.score(temp_board)
return _create_move(SWAP_VERTICAL, new_block), score
if random_move == 5:
if new_block.smash():
score = goal.score(temp_board)
return _create_move(SMASH, new_block), score
if random_move == 6:
if new_block.combine():
score = goal.score(temp_board)
return _create_move(COMBINE, new_block), score
if random_move == 7:
random_color = goal.colour
if new_block.paint(random_color):
score = goal.score(temp_board)
return _create_move(PAINT, new_block), score
return _random_valid_moves(block, goal)
def generate_goal(self, reward):
"""
Desc: Generate goal on the gridworld. This is done by choosing a
random spot.
Input(s):
reward: reward designated for this goal
Output(s):
none
"""
initial_pos = self.choose_spot()
logging.info("Goal pos: (%d, %d)" % (initial_pos[0], initial_pos[1]))
self.spots[initial_pos[1], initial_pos[0], 2] = 2
return Goal(initial_pos, reward)
def __init__(self, width: int, height: int):
"""Initializes a new world object.
Args:
width (float): The width of the world in meters.
height (float): The height of the world in meters.
"""
self.width: int = width
self.height: int = height
self.cars: List[Car] = []
self.goal: Goal = Goal(0.0, 0.0, False)
self.collision_distribution: List[int] = []
self.flocking_performance_distribution: List[float] = []
def __init__(self):
super().__init__()
self.time = settings.fps_duration
self.num_font = pygame.font.SysFont("arialblack", settings.font_size)
self.field_img = pygame.transform.scale(
pygame.image.load("images/field.png").convert_alpha(),
settings.field_size)
self.left_goal_img = pygame.transform.scale(
pygame.image.load("images/left-goal.png").convert_alpha(),
settings.goal_size)
self.right_goal_img = pygame.transform.scale(
pygame.image.load("images/right-goal.png").convert_alpha(),
settings.goal_size)
player1 = Player("red", settings.player1_keyconfig,
settings.player1_start_pos, Side.RIGHT)
player2 = Player("blue", settings.player2_keyconfig,
settings.player2_start_pos, Side.LEFT)
self.players = [player1, player2]
goalie1 = Goalie(settings.goalie1_startx, settings.goalie_starty,
Side.RIGHT, "red", settings.goalie1_keyconfig)
goalie2 = Goalie(settings.goalie2_startx, settings.goalie_starty,
Side.LEFT, "blue", settings.goalie2_keyconfig)
self.goalies = [goalie1, goalie2]
self.ball = Ball(settings.ball_start_pos)
self.left_team = Team(Side.LEFT) # left team attacks right goal
self.right_team = Team(Side.RIGHT) # right team attacks left goal
self.goals = [
Goal(0, self.right_team),
Goal(settings.rightwall, self.left_team)
]
self.kickoff()
def __str__(self, level=0):
"""Print current Goal"""
ret = Goal.pretty_print_goal(self, level)
if self.children is not None:
for link, goals in self.children.items():
ret += "\t" * level + "| " + link.name + "\n"
level += 1
for child in goals:
try:
ret += child.__str__(level + 1)
except:
print("ERROR IN PRINT")
return ret
def generate_maze(self):
maze = [[0 for x in range(self.length)] for x in range(self.length)]
for row in range(self.length):
for column in range(self.length):
maze[row][column] = Wall(row, column)
maze[0][0] = Clear(0, 0)
maze[0][1] = Clear(0, 1)
maze[0][2] = Clear(0, 2)
maze[1][2] = Clear(1, 2)
maze[2][2] = Clear(2, 2)
maze[3][2] = Clear(3, 2)
maze[3][3] = Goal(3, 3)
return maze
def __init__(self):
self.algorithm = ''
self.heuristic = ''
self.file = ''
self.check_arguments(sys.argv[1:])
self.start = []
self.size = 0
self.puzzle_parsing(self.file)
self.goal = Goal(self.size)
self.h = self.choose_heuristic_function()
self.cost_function = self.create_cost_function()
self.create_cost_function()
goal_solvability = self.is_solvable(self.goal.puzzle)
start_solvability = self.is_solvable(self.start)
if goal_solvability is False:
start_solvability = not start_solvability
if start_solvability is False:
raise Exception("Error: Puzzle is unsolvable")
def __init__(self,x,y,friends,place,other,goal,image=str('taskbar.png')):
Bar.__init__(self,x,y,friends,place,image)
self.lives = Lives(self.rect.x+353,self.rect.y+71,self.group,self.screen,str('5lives.png'))
self.goRect = pygame.Rect(717,658,118,75)
self.barGoal = Goal(self.rect.x+605,self.rect.y+70,self.group)
self.barGoal.resize(40,40)
self.score = Score(250,665,friends,self.screen,2000,26,(0,0,0))
self.arrow = Arrow(872,665,friends,self.screen)
self.menuWidget = MenuWidget(self.rect.x+694,723,self.group,self.screen,self.arrow)
self.itemsTab = ItemsTab(self.rect.x-912,self.rect.y+15,self.group,self.screen,-917,-954,-3)
self.game = other
self.grabbed = None
self.item_one_reset()
self.items_one_limit = 1
self.items_one_placed = 0
self.items_two_limit = 0
self.items_two_placed = 0
self.items_three_placed = 0
self.items_three_limit = 0
self.goal = goal
def loadLevel(self):
"""
Loads the level specified by the level argument.
"""
#Try open the level, if it doesn't exist go to the win screen
try:
f = open("data/levels/level_%03d" % self.level)
except IOError:
self.gameEngine.scene = GameOver(self.gameEngine, True)
return
del self.gameObjects[:]
x = y = 0
while 1:
row = f.readline()
if not row:
break
for col in row:
obj = None #object to be added at the end of each iteration
if col == "W":
obj = Wall(self, x, y)
if col == "E":
obj = Goal(self, x, y)
if col == "L":
obj = FreeLife(self, x, y)
if col == "B":
obj = Player(self, x, y)
self.spawn = (x, y)
if obj is not None:
self.gameObjects.append(obj)
x += 16
y += 16
x = 0
def create_or_update(cls, connection, **values):
"""Create or Update an activity row in 'activity_goal' table
:param connection: DB connection object
:param values: activity_goal payload
{
'user_id': <user-id>,
'goal_id': <goal-id>,
}
:return: boolean output
"""
session = connection.SESSION
create_or_update = True
try:
activity_obj = session.query(schema.ActivityGoal).filter_by(**values).one()
goal_count = Goal.get(connection, values.get(GOAL_ID_KEY)).get(COUNT_KEY)
if goal_count < activity_obj.frequency + 1:
raise Exception("Reached the required goal count")
setattr(activity_obj, FREQUENCY_KEY, activity_obj.frequency + 1)
completed_on = literal_eval(activity_obj.completed_on)
completed_on[str(activity_obj.frequency)] = get_utc_time().strftime(TIME_FORMAT)
setattr(activity_obj, COMPLETED_ON_KEY, completed_on)
setattr(activity_obj, LAST_UPDATED_AT_KEY, get_utc_time())
if goal_count == activity_obj.frequency:
setattr(activity_obj, COMPLETED_KEY, True)
session.commit()
except NoResultFound as _:
values[COMPLETED_ON_KEY] = dict([(str(1), get_utc_time().strftime(TIME_FORMAT))])
session.add(schema.ActivityGoal(**values))
session.commit()
except Exception as e:
print "Exception occurred during querying (INSERT/UPDATE) the activity_goal table: %s" % e
session.rollback()
create_or_update = False
finally:
session.close()
return create_or_update
def get_by_goal_name(cls, connection, goal_name, week, completed=None):
"""Get all activities with goal_name from 'activity_goal' table on <week> of all users
:param connection: DB connection object
:param goal_name: goal name
:param week: week number
:param completed: status of the activity (True/False/None)
True - returns all the completed goal_name goals of all users
False - return all the in-progress goal_name goals of all user
None - return all the goals_name goals of all users
:return: list of activities of all users with goal_name
[{
'user_id': <user-id>,
'goal_id': <goal-id>,
'frequency': <number-of-times-goal-performed> (3),
'last_updated': <datetime>,
'completed_on': {1: <datetime>, 2: <datetime>, 3: <datetime>},
'completed': True (or) False
}]
"""
goal_id = Goal.get_goal_id(connection, goal_name, week)
return cls.get_by_goal_id(connection, goal_id, completed=completed)
class ToolBar(Bar):
def __init__(self,x,y,friends,place,other,goal,image=str('taskbar.png')):
Bar.__init__(self,x,y,friends,place,image)
self.lives = Lives(self.rect.x+353,self.rect.y+71,self.group,self.screen,str('5lives.png'))
self.goRect = pygame.Rect(717,658,118,75)
self.barGoal = Goal(self.rect.x+605,self.rect.y+70,self.group)
self.barGoal.resize(40,40)
self.score = Score(250,665,friends,self.screen,2000,26,(0,0,0))
self.arrow = Arrow(872,665,friends,self.screen)
self.menuWidget = MenuWidget(self.rect.x+694,723,self.group,self.screen,self.arrow)
self.itemsTab = ItemsTab(self.rect.x-912,self.rect.y+15,self.group,self.screen,-917,-954,-3)
self.game = other
self.grabbed = None
self.item_one_reset()
self.items_one_limit = 1
self.items_one_placed = 0
self.items_two_limit = 0
self.items_two_placed = 0
self.items_three_placed = 0
self.items_three_limit = 0
self.goal = goal
def lives_over(self):
self.lives.no_lives()
def lives_update(self):
self.lives.update()
def reset_lives(self):
#print "resetting lives"
self.lives.back_to_three(False)
def reset_lives_over(self):
self.lives.back_to_three(True)
def update(self,pos=(0,0)):
if self.grabbed != None:
self.grabbed.update(pos,self)
def clear_grabbed(self):
if self.grabbed != None:
self.grabbed.dropped()
self.grabbed = None
def collision_test(self,pos,player,button):
if self.goRect.collidepoint(pos) and not self.itemsTab.open and not self.menuWidget.open and button == 1:
player.makeANew = True
elif self.goRect.collidepoint(pos) and not self.itemsTab.open and not self.menuWidget.open and button == 3:
return True
elif self.itemsTab.items_rect.collidepoint(pos) and not self.menuWidget.open:
self.grabbed = self.itemsTab
elif self.menuWidget.widget_rect.collidepoint(pos) and not self.itemsTab.open:
self.grabbed = self.menuWidget
elif self.menuWidget.quit_rect.collidepoint(pos):
self.game.quit()
elif self.items_one.collidepoint(pos) and self.itemsTab.open and self.items_one_placed < self.items_one_limit:
x,y = pos
x -= 30
y -= 30
self.grabbed = UserPlanet(x,y,60,60,25,self.game.userPlacedObjects,self.group,self.game.obstacles,self,player,1,self.goal,str('rockplanet.png'))
self.items_one_placed += 1
if self.items_one_placed >= self.items_one_limit:
self.items_one.x = -30
self.itemsTab.rock_item.dark()
elif self.itemsTab.earth_item.rect.collidepoint(pos) and self.itemsTab.open and self.itemsTab.earth_item and self.items_two_placed < self.items_two_limit:
#print "touch earth"
x,y = pos
x -= 30
y -= 30
self.grabbed = UserPlanet(x,y,65,65,30,self.game.userPlacedObjects,self.group,self.game.obstacles,self,player,2,self.goal,str('ringed.png'))
self.items_two_placed += 1
#print self.items_two_placed
if self.items_two_placed >= self.items_two_limit:
self.itemsTab.earth_item.dark()
elif self.itemsTab.venus_item.rect.collidepoint(pos) and self.itemsTab.open and self.itemsTab.venus_item and self.items_three_placed < self.items_three_limit:
#print "touch venus"
x,y = pos
x -= 30
y -= 30
self.grabbed = UserPlanet(x,y,68,68,40,self.game.userPlacedObjects,self.group,self.game.obstacles,self,player,3,self.goal,str('venus.png'))
self.items_three_placed += 1
if self.items_three_placed >= self.items_three_limit:
self.itemsTab.venus_item.dark()
elif self.menuWidget.instructions_rect.collidepoint(pos) and self.menuWidget.open:
self.game.inStructionees()
elif self.menuWidget.save_rect.collidepoint(pos) and self.menuWidget.open:
self.game.saveFile()
return False
def item_one_reset(self):
self.items_one_placed = 0
self.items_one = pygame.Rect(119,667,55,45)
self.itemsTab.rock_item.light()
def item_two_reset(self):
self.items_two_placed = 0
self.itemsTab.earth_item.light()
def item_three_reset(self):
self.items_three_placed = 0
self.itemsTab.venus_item.light()
def next_level(self,level,reset_lives_bool):
#print level-2
self.barGoal.change_image(self.images[level-2])
if level != 3:
self.barGoal.resize(40,40)
else:
self.barGoal.resize(57,40)
self.item_one_reset()
if reset_lives_bool:
self.reset_lives()
self.nextPosition += 1
if level == 2:
self.item_two_reset()
self.items_two_limit = 1
elif level == 3:
self.item_three_reset()
self.items_two_limit = 1
self.items_three_limit = 1
self.item_two_reset()
self.item_one_reset()
elif level == 4:
self.item_three_reset()
self.items_two_limit = 1
self.items_three_limit = 1
self.item_two_reset()
self.item_one_reset()
def addGoal(self, x, y):
if self._valid(x, y):
self.goal = Goal(x, y, self.cell_size)
def __init__(self, owner):
Goal.__init__(self, owner)
self.subgoals = []
def __init__(self, owner):
Goal.__init__(self, owner)
def __init__(self, owner):
Goal.__init__(self, owner)
self.dc = [9, 15, 39, 45]
def __init__(self, owner):
Goal.__init__(self, owner)
self.dc = [8, 13, 27, 32]
class Die(object):
"""This class specifies dice used in games.
"""
def __init__(
self,
max_roll,
name=DEF_NAME,
offset=DEF_OFFSET,
mod=DEF_MOD):
"""Dice have a max roll, an offset, and a name.
"""
self.max_roll = max_roll
self.offset = offset
self.name = name
self.mod = mod
self.__goal = None
self.__func = None
self.__rolls = []
self.check_vars()
DICE.append(self)
def __str__(self):
"""The print-out of a Dice object.
"""
self.check_vars()
message = '%s: ' % self.name
message += 'd%d' % self.max_roll
if self.offset > 0:
message += '+'
if self.offset != 0:
message += '%d, ' % self.offset
if self.mod != 0:
message += 'mod: %d, ' % self.mod
return message
########################################################################
# Public Methods
########################################################################
def roll(self, count=1, goal=None):
"""Appends a roll to the dice's rolls list.
"""
self.check_vars()
result = None
if goal == None and self.__goal != None:
goal = self.__goal
for _ in range(count):
value = randint(
self.offset + 1,
self.max_roll + self.offset + 1
)
if self.__func != None:
result = self.__func(value)
self.__rolls.insert(
0,
Roll(self, value, goal=goal, result=result)
)
def rolls(self):
"""Returns the list of rolls for the dice.
"""
return self.__rolls
def set_goal(self, goal):
"""Sets the goal of the dice to be used as a default for rolls.
"""
if isinstance(goal, Goal):
self.__goal = goal
else:
self.__goal = Goal(value=goal)
def set_function(self, func, clear_rolls=True):
"""This method assigns a function to a dice, which is executed
with each roll, and recieves a the Roll object as an argument.
Optional argument clear_rolls sets __rolls to an empty list if
True.
"""
if isinstance(func, types.FunctionType):
if func == self.__func:
return
self.__func = func
if clear_rolls == True:
self.__rolls = []
self.__check_func()
else:
self.__func = None
def possible_rolls(self):
"""Returns a list of possible roll values, not including Mod.
"""
possible_rolls = []
for num in range(self.offset + 1, self.offset + self.max_roll + 1):
possible_rolls.append(num)
return possible_rolls
def check_vars(self):
"""Maintain the validity of Dice variables.
"""
self.__check_max_roll()
self.__check_offset()
self.__check_name()
self.__check_modifier()
self.__check_rolls()
self.__check_goal()
self.__check_func()
########################################################################
# Private Methods
########################################################################
def __check_max_roll(self):
"""Make sure that any changes made to max_roll are valid.
"""
try:
self.max_roll = int(self.max_roll)
except ValueError:
self.max_roll = DEF_MAX
if self.max_roll <= CRITICAL_FAIL:
self.max_roll = DEF_MAX
def __check_offset(self):
"""Make sure that when and if the offset is changed, that it
is still positive and a number.
"""
try:
self.offset = int(self.offset)
except ValueError:
self.offset = DEF_OFFSET
if self.offset <= -1:
self.offset = DEF_OFFSET
def __check_name(self):
"""If the name is None, then the name displayed on print should be
NA.
"""
if self.name == 'None':
return
if self.name == None:
self.name = DEF_NAME
try:
self.name = str(self.name)
except ValueError:
self.name = DEF_NAME
def __check_modifier(self):
"""Make sure that when and if the moddifier is changed, that it is
still an integer.
"""
try:
self.mod = int(self.mod)
except ValueError:
self.mod = DEF_MOD
def __check_rolls(self):
"""Dice's rolls list length shouldn't exceed DEF_ROLLS_LENGTH
"""
self.__rolls = self.__rolls[:DEF_ROLLS_LENGTH]
def __check_goal(self):
"""Dice's goal should be checked by Goal class verification.
"""
if isinstance(self.__goal, Goal):
self.__goal.check_vars()
elif self.__goal != None:
self.__goal = Goal(self.__goal)
def __check_func(self):
"""Dice's function should be a FunctionType and be able to take an
integer argument.
"""
message = "Function %s() does not accept integer arguments."
if isinstance(self.__func, types.FunctionType):
try:
temp = self.__func(1)
except ValueError:
del temp
raise InvalidDieFunction(message % self.__func)
else:
self.__func = None
class Board:
def __init__(self, width, height, cell_size):
self.w = width
self.h = height
self.cell_size = cell_size
self.start = None
self.goal = None
self.player = None
self.obstacles = []
self.flags = []
self.captured_flags = []
def _valid(self, x, y):
return x >= 0 and x < self.w and y >= 0 and y < self.h
def _collide(self, x, y):
return Obj(x,y) in self.obstacles
def _checkFlags(self):
if self.player in self.flags:
self.flags.remove(self.player)
self.captured_flags.append(Flag(self.player.x, self.player.y, self.cell_size/2))
def _checkGoal(self):
if self.player == self.goal:
self.player.update(self.start[0], self.start[1])
if self.flags == []:
self.flags = list(self.captured_flags)
else:
self.flags.extend(self.captured_flags)
self.captured_flags = []
def addStart(self, x, y):
if self._valid(x, y):
self.start = (x, y)
def addGoal(self, x, y):
if self._valid(x, y):
self.goal = Goal(x, y, self.cell_size)
def addPlayer(self, x, y):
if self._valid(x, y):
self.player = Player(x, y, self.cell_size/2)
def addObstacle(self, x, y):
if self._valid(x, y):
self.obstacles.append(Obstacle(x, y, self.cell_size))
def addObstacles(self, obstacles):
for (x,y) in obstacles:
self.addObstacle(x, y)
def addFlag(self, x, y):
if self._valid(x, y):
self.flags.append(Flag(x, y, self.cell_size/2))
def addFlags(self, flags):
for (x,y) in flags:
self.addFlag(x, y)
def moveUp(self):
if self._valid(self.player.x,self.player.y-1) and not self._collide(self.player.x,self.player.y-1):
self.player.update(self.player.x,self.player.y-1)
self._checkFlags()
self._checkGoal()
def moveDown(self):
if self._valid(self.player.x,self.player.y+1) and not self._collide(self.player.x,self.player.y+1):
self.player.update(self.player.x,self.player.y+1)
self._checkFlags()
self._checkGoal()
def moveRight(self):
if self._valid(self.player.x+1,self.player.y) and not self._collide(self.player.x+1,self.player.y):
self.player.update(self.player.x+1,self.player.y)
self._checkFlags()
self._checkGoal()
def moveLeft(self):
if self._valid(self.player.x-1,self.player.y) and not self._collide(self.player.x-1,self.player.y):
self.player.update(self.player.x-1,self.player.y)
self._checkFlags()
self._checkGoal()
def display(self, screen):
self.player.display(screen)
self.goal.display(screen)
for flag in self.flags:
flag.display(screen)
for obstacle in self.obstacles:
obstacle.display(screen)
def __init__(self, owner):
Goal.__init__(self, owner)
self.child_conn = owner.controller.child_conn
self._term_event = multiprocessing.Event()
self._process = None
