def populateListOfConditions(theFileName):
with open(theFileName, 'r', encoding='mac_roman') as csvfile:
fileReader = csv.reader(csvfile)
next(fileReader)
previousRowID = ""
previousRowCondition = ""
for row in fileReader:
if row[CONDITION_COLUMN] == "" or row[
CONDITION_COLUMN] != previousRowID:
listOfConditions[row[CONDITION_COLUMN]] = []
newCondition = Condition(row[CONDITION_COLUMN],
row[SUBTYPE_COLUMN])
newField = Field(row[SUBTYPE_COLUMN], row[LINE_NUMBER_COLUMN],
row[FIELD_COLUMN], row[PROGRESS_COLUMN])
newCondition.addFieldToCondition(newField)
listOfConditions[row[CONDITION_COLUMN]].append(newCondition)
elif row[CONDITION_COLUMN] == previousRowID:
if row[SUBTYPE_COLUMN] == previousRowCondition:
newField = Field(row[SUBTYPE_COLUMN],
row[LINE_NUMBER_COLUMN],
row[FIELD_COLUMN], row[PROGRESS_COLUMN])
conditionReference = listOfConditions[
row[CONDITION_COLUMN]]
conditionReference[-1].addFieldToCondition(newField)
elif row[SUBTYPE_COLUMN] != previousRowCondition:
newCondition = Condition(row[CONDITION_COLUMN],
row[SUBTYPE_COLUMN])
newField = Field(row[SUBTYPE_COLUMN],
row[LINE_NUMBER_COLUMN],
row[FIELD_COLUMN], row[PROGRESS_COLUMN])
newCondition.addFieldToCondition(newField)
listOfConditions[row[CONDITION_COLUMN]].append(
newCondition)
previousRowID = row[CONDITION_COLUMN]
previousRowCondition = row[SUBTYPE_COLUMN]
def get_captures_for_queen_directions(board, pawn, player, nx, ny):
x = pawn.x
y = pawn.y
n = 0
board_with_captured = []
while True:
x = x + n * nx
y = y + n * ny
if board.does_field_exist(x, y):
if board.is_opponent_pawn(player, x, y):
if is_correct_move(board, Field(x + nx, y + ny, "c", 100)):
# print("oponen")
future_pawn = Field(x + nx, y + ny, pawn.pawn, pawn.value)
opponent_pawn = Field(x, y, "c", 0)
new_board = board.copy_board()
new_board.remove_pawn(pawn)
new_board.remove_pawn(opponent_pawn)
new_board.add_pawn(future_pawn)
board_with_captured = [new_board]
break
else:
break
n += 1
return board_with_captured
def test_show_hide(self):
field = Field(None, (0, 0))
assert not field.visible
field.show()
assert field.visible
field.hide()
assert not field.visible
def generate(self):
self.gen += 1
while len(self.pool) < 2:
self.pool.append(Field())
parents = self.get_parents()
children = self.get_children(parents)
if children[0].score > parents[1].score:
self.pool.append(children[0])
self.pool.append(children[1])
self.pool.append(parents[1])
return
if parents[0].score > children[1].score:
self.pool.append(parents[1])
return
if parents[1].score > children[1].score:
self.pool.append(children[1])
self.pool.append(parents[1])
return
self.pool.append(children[1])
self.pool.append(Field())
return
def __init__(self):
self.top = Tk()
self.canvas = Canvas(self.top, bg="darkgreen", height=700, width=1000)
self.field = Field(self.canvas, "darkgreen", 1000, 700, 50, 30, 160,
80, 150, 70, 200, 10, 150, 5)
self.meshGrid = MeshGrid(self.canvas, 1000, 700, 50, 15)
self.ball = Ball(self.canvas, 500, 350, 10, 4, "white", "black", 1)
buttonNextFrame = Button(self.top,
text="Next Frame",
command=self.nextFrame)
buttonNextFrame.place(x=350, y=680)
buttonShowMeshgrid = Button(self.top,
text="Show Grid",
command=self.showMeshGrid)
buttonShowMeshgrid.place(x=550, y=680)
buttonShowFlowfield = Button(self.top,
text="Show Flowfield",
command=self.showFlowField)
buttonShowFlowfield.place(x=650, y=680)
buttonShowField = Button(self.top,
text="Show Field",
command=self.showFootballField)
buttonShowField.place(x=450, y=680)
self.animate()
self.nextFrame()
self.canvas.pack()
self.top.mainloop()
def moveSlice(self, slice, toLeft):
# slice is a row or column from board
# toLeft == 1 means agregate values to the left
if not toLeft:
slice.reverse()
newslice = []
current = None
for i in range(len(slice)):
if slice[i].getValue() is None:
continue
if current is None and isinstance(slice[i].getValue(), int):
current = slice[i].getValue()
continue
elif slice[i].getValue() == current and isinstance(slice[i].getValue(), int):
newslice.append(Field(current*2))
current = None
elif slice[i].getValue() != current and isinstance(slice[i].getValue(), int):
newslice.append(Field(current))
current = slice[i].getValue()
newslice.append(Field(current))
for i in range(self.size - len(newslice)):
newslice.append(Field(None))
if not toLeft:
newslice.reverse()
return newslice
return newslice
def test_successful_end_to_end():
f = Field(Example)
assert f.from_kind == Question
assert f.to_kind == Answer
assert 'get_question' in f.opcode
assert 'tests_verify_answer' in f.opcode
assert '2pat_merge_as_pic' in f.opcode
source = Source(('get_question',
'pic_all_as_pat',
'pat_flip_up_down',
'get_question',
'pic_all_as_pat',
'2pat_merge_as_pic',
'tests_verify_answer'))
code = f.compile(source)
assert isinstance(code, Code)
assert len(code.data) == len(source.data)
ctx = Context('data')
prb = ctx.get_problem_startswith('496994bd')
for example in prb:
ret = f.run(code, example, peek_answer=True)
assert isinstance(ret, Block)
assert ret.type == Block.type_integer
assert isinstance(ret.data, int)
assert ret.data == 1
def __init__(self):
super(TFTEnv, self).__init__()
self.reward_range = (0, MAX_ACCOUNT_BALANCE)
# Actions of the format Buy x%, Sell x%, Hold, etc.
self.action_space = spaces.Box(low=np.array([0, 0]),
high=np.array([8, 1]),
dtype=np.float16)
"""
Multidiscrete action space as follows:
1. Buy Champion: Discrete 6 - NOOP[0], BUY[1-5]
2. Sell Champion: Discrete 6 (from bench) - NOOP[0], SELL[1-9]
3. Level up: Discrete 2 - NOOP[0], LEVEL[1]
4. Reroll: Discrete 2 - NOOP[0], REROLL[2]
5. Move Champion from board to bench: Discrete 190 - NOOP[0], MOVE[1-189]
6: Move Champion from bench to board: Discrete 190 - NOOP[0], MOVE[1-189]
8. Move Champion from board to board: Discrete 421 - NOOP[0], MOVE[1-420]
"""
self.action_space = spaces.MultiDiscrete([5, 10, 421, 2, 2])
# Prices contains the OHCL values for the last five prices
"""
Observation space:
Bench: [9, 5]
Board: [21, 5]
Store: [5, 5] [Slot 1-5][Champion ID, Stars, Tier, Synergy 1, Synergy 2]
"""
self.observation_space = spaces.Box(0, 5, shape=(35, 6), dtype=np.int)
# main execution
self.info_reader = ScreenInterpreter()
self.pc = PlayerControl()
self.field = Field()
self.offset = win32gui.ClientToScreen(self.info_reader.hwnd, (0, 0))
self.pc.setOffset(self.offset)
self.current_step = 0
class Game(object):
def __init__(self):
#self.menu = some_menu()
self.field = Field()
self.coords = self.field.get_new_coords()
def draw_all(self):
#отрисовать меню
self.field.draw_field()
def make_shot(self, coord):
ship = self.field.make_shot(coord)
killed = ship.make_shot()
#change counts
def start(self):
while self.coords:
self.draw_all()
# choice = input('Введите x,y: ').replace(" ").split(',')
# choice.make_shot()
# self.field.make_shot(self.coords.get(choice), choice)
self.coords = None
def _draw_field(self, field: Field, offset=0):
if self.last_field is None:
self.last_field = Field(field.width, field.height)
self.last_field.set_all_pixels_to([-1, -1,
-1]) # ensures a repaint
pygame.draw.rect(
self.window, [50, 50, 50],
pygame.Rect(self.field_position[0], self.field_position[1],
field.width * self._pixel_width,
field.height * self._pixel_height))
sizechange = 1 if offset > 0 else 0
for y in range(0, field.height):
for x in range(0, field.width):
pixel_color = field.field[y][x]
if offset == 0:
if pixel_color == self.last_field.field[y][x]:
continue
left = (x - offset) * self._pixel_width + self.field_position[
0] + 1 + sizechange * 5
top = (y - offset) * self._pixel_height + self.field_position[
1] + 1 + sizechange * 5
width = self._pixel_width - 2 - sizechange * 10
height = self._pixel_height - 2 - sizechange * 10
pygame.draw.rect(self.window, pixel_color,
pygame.Rect(left, top, width, height))
# remember the pixel if original field
if offset == 0:
self.last_field.field[y][x] = pixel_color
def get_correct_moves_for_pawn(board, pawn, player):
if player == PLAYER1:
direction = 1
else:
direction = -1
correct_moves = []
possible_field = Field(pawn.x + 1, pawn.y + direction, pawn.pawn,
pawn.value)
if is_correct_move(board, possible_field):
new_board = board.copy_board()
new_board.remove_pawn(pawn)
if board.is_on_edge(possible_field.x, possible_field.y):
possible_field = board.pawn_to_queen(possible_field)
new_board.add_pawn(possible_field)
correct_moves.append(new_board)
possible_field = Field(pawn.x - 1, pawn.y + direction, pawn.pawn,
pawn.value)
if is_correct_move(board, possible_field):
new_board = board.copy_board()
new_board.remove_pawn(pawn)
if board.is_on_edge(possible_field.x, possible_field.y):
possible_field = board.pawn_to_queen(possible_field)
new_board.add_pawn(possible_field)
correct_moves.append(new_board)
return correct_moves
def get_captures_for_pawn_left(board, pawn, player) -> (Board, None):
if player == PLAYER1:
direction = 1
else:
direction = -1
board_with_captured = None
if board.does_field_exist(pawn.x - 1,
pawn.y + direction) and board.does_field_exist(
pawn.x - 2, pawn.y + (2 * direction)):
if board.is_opponent_pawn(player, pawn.x - 1,
pawn.y + direction) and board.is_empty_field(
pawn.x - 2, pawn.y + (2 * direction)):
future_pawn = Field(pawn.x - 2, pawn.y + (2 * direction),
pawn.pawn, pawn.value)
opponent_pawn = Field(pawn.x - 1, pawn.y + direction, "c", 0)
board_with_captured = board.copy_board()
board_with_captured.remove_pawn(opponent_pawn)
board_with_captured.remove_pawn(pawn)
if board.is_on_edge(future_pawn.x, future_pawn.y):
future_pawn = board.pawn_to_queen(future_pawn)
board_with_captured.add_pawn(future_pawn)
potential = get_captures_for_pawn_left(board_with_captured,
future_pawn, player)
if potential:
board_with_captured = potential
return board_with_captured
def __init__(self, id, alpha, bound, origX, origY, width, height):
Field.__init__(self, id)
self.alpha = alpha
self.bound = bound
self.origX = origX
self.origY = origY
self.width = width
self.height = height
def __init__(self, id, alpha, bound, origX, origY, width, height):
Field.__init__(self, id)
self.alpha = alpha
self.bound = bound
self.origX = origX
self.origY = origY
self.width = width
self.height = height
def pawn_to_queen(self, pawn: Field):
if pawn.pawn.isupper():
return pawn
else:
if pawn.y == 0 or pawn.y == 7:
pawn.pawn = pawn.pawn.upper()
pawn.value = pawn.value * 10
return pawn
def simWalks(numSteps, numTrials, dClass):
homer = dClass('Homer')
origin = Location(0, 0)
distances = []
for t in range(numTrials):
f = Field()
f.addDrunk(homer, origin)
distances.append(walk(f, homer, numSteps))
return distances
def Fields(self):
flds = Processible.Fields(self).union([
Field('modeid', 'int'),
Field('sampleid', 'int'),
Field('weight', 'float')
])
if self.weighted:
flds = flds.union([Field('lumifactor', 'float')])
return flds
def __init__(self):
self.window = Tk()
self.window.title('Football')
self.canvas = Canvas(self.window, width=2*Field.X0+Field.WIDTH, height=2*Field.Y0+Field.HEIGHT)
self.canvas.pack()
self.field = Field(self.canvas)
self.ball = Ball(self.canvas, self.field)
self.scoreboard = Scoreboard(self.canvas, self.field)
self.teams = Teams(self.canvas, self.field, self.ball)
self.state = Game.BEGIN
def __init__(self):
"""
The class represented the BattleShips game process
"""
player_1 = input('Player 1, Enter your name: ')
player_2 = input('Player 2, Enter your name: ')
self.__fields = [Field(), Field()]
self.__players = [Player(player_1), Player(player_2)]
self.__current_player = 0
self.__next_player = 1
def get_input_fields(cls) -> List[Field]:
return super().get_input_fields() + [
Field('EndDate', 'task end date', validate_date_string,
'value must be date in YYYYMMDD format'),
Field(
'Frequency', 'task recurrence frequency',
validate_recurrence_frequency,
f'value must be in {[enum_value for enum_value in RecurrenceFrequency]}'
)
]
def test_decompile():
field = Field(Example)
source = ('[2, 4, 6, 8]', '(0, 1, 1, 0)', '(1, 2)', '(2,)', '[[1, 1], [1, 0]]',
'pic_int_zoom_in', 'pic_intp_select_columns', 'pic_nesw_extend', 'pic_vec_recolor_each')
code = field.compile(Source(source))
assert code.type == Block.type_no_error
new_source = field.decompile(code)
assert field.rex_vector.match(new_source[0].strip())
assert field.rex_tuple.match(new_source[1].strip())
assert field.rex_tuple.match(new_source[2].strip())
assert new_source[3].strip() == '2'
assert field.rex_picture.match(new_source[4].strip())
new_source = field.decompile(code, pretty=False)
assert new_source == source
new_source = field.decompile(BopForward.bopforward_2pic_recolor_any_rtl)
assert len(new_source) == 1
new_source = field.decompile((Block.new_picture(list_of_list=[[4, 0, 4]]), BopForward.bopforward_pic_all_as_pat))
assert len(new_source) == 2
with pytest.raises(AttributeError):
field.decompile((Block.new_picture(list_of_list=[[4, 0, 4]]), 'aa'))
def findSolution(n, matrix):
field = Field()
field.createField(matrix)
field.printField()
solutions = Queue()
minSolution = None
cache = ComboCache()
preAnsweredCache = {}
for j in range(1,n+1):
preAnsweredCache[j]= []
for i in range(1,n+1):
cache.clear()
if (i-2 in preAnsweredCache):
for sol in preAnsweredCache[i-2]:
newSolution = Solution(field)
newSolution.setState(solution)
newSolution.maxGreenhouses = i
solutions.put(newSolution)
else:
firstSolution = Solution(field)
firstSolution.maxGreenhouses = i
solutions.put(firstSolution)
while (not solutions.empty()):
solution = solutions.get()
if (minSolution == None or solution.computeCost() < minSolution.computeCost()):
if (solution.getNumberOfGreenhouses() == (solution.maxGreenhouses-1)):
## find the leftmost, topmost, rightmost, bottommost
## uncovered points. They form your final greenhouse.
## if left < right and top < bottom (or right > right and bottom > bottom,
## it overlaps, and no solution using this is possible.
if (solution.placeFinalGreenhouse()):
cost = solution.computeCost()
if (minSolution == None or cost < minSolution.computeCost()):
minSolution = solution
else:
## iterate through the remaining uncovereds, both for start
## and end. reject overlaps!
for corner1 in solution.getRemaining():
for corner2 in solution.getRemaining():
newSolution = Solution(field)
newSolution.setState(solution)
if (newSolution.placeGreenhouse(corner1.x, corner2.x, corner1.y, corner2.y)):
if (not cache.isPresent(newSolution)):
solutions.put(newSolution)
preAnsweredCache[newSolution.getNumberOfGreenhouses()].append(newSolution)
cache.insert(newSolution)
minSolution.printSolution()
def simulateWalk(steps, intentsNumber, drunkType):
drunk = drunkType(name='Oskar')
origin = Coordenate(0, 0)
distances = []
for _ in range(intentsNumber):
field = Field()
field.addDrunk(drunk, origin)
walkSimulation = walk_trip(field, drunk, steps)
distances.append(round(walkSimulation, 1))
return distances
def perform_search(self):
keywordsElement = self._get_loading_element(
{'by': By.ID, 'value': 'sc.keyword'})
locationElement = self._get_loading_element(
{'by': By.ID, 'value': 'sc.location'})
self.keywordsField = Field(keywordsElement)
self.locationField = Field(locationElement)
self.actionBtn = self._get_loading_element(
{'by': By.CSS_SELECTOR, 'value': '.SearchStyles__newSearchButton'})
self.virtualUser.perform_search(
self.keywordsField, self.locationField, self.actionBtn)
def make_fields():
fields = []
for i in range(8):
row = []
for j in range(8):
if (i + j) % 2 == 1:
row.append(Field(j, i, "_", 0))
else:
row.append(Field(j, i, " ", 0))
fields.append(row)
return fields
def create_pawns():
pawns = []
for i in range(3):
for j in range(8):
if (i + j) % 2 == 1:
pawns.append(Field(j, i, "w", 1))
for i in range(5, 8):
for j in range(8):
if (i + j) % 2 == 1:
pawns.append(Field(j, i, "b", -1))
return pawns
def assert_error(source_tuple, error_msg):
field = Field(Example)
code = field.compile(Source(source_tuple))
assert isinstance(code, Code)
ret = field.run(code)
assert isinstance(ret, Block)
assert ret.type == Block.type_error
assert ret.data == error_msg
def populate_field(field: Field, **kwargs):
allow_blank = kwargs.get('allow_blank', False)
while field.value is None:
try:
raw_input = input(f'Enter value for {field.name}: ')
if allow_blank and raw_input == '':
return
field.set(raw_input)
except ValueError as err:
print(err)
def simWalks(numSteps, numTrials, dClass):
"""Assumes numSteps an int >= 0, numTrials an int > 0,
dClass a subclass of Drunk Simulates numTrials walks of numSteps steps each.
Returns a list of the final distances for each trial"""
Homer = dClass()
origin = Location(0.0, 0.0)
distances = []
for t in range(numTrials):
f = Field()
f.addDrunks(Homer, origin)
distances.append(walk(f, Homer, numSteps))
return distances
def simWalks(numSteps, numTrials, dClass):
"""numSteps : 0 以上の整数
numTrials : 正の整数
dClass : Drunk のサブクラス
numSteps 回移動する酔歩を, numTrials 回シミュレートする.
各実験の初期位置と最終位置との差をリストにして出力する."""
Homer = dClass()
origin = Location(0.0, 0.0)
distances = []
for t in range(numTrials):
f = Field()
f.addDrunk(Homer, origin)
distances.append(walk(f, Homer, numSteps))
return distances
def simWalks(numSteps, numTrials, dClass):
"""numSteps : 0 以上の整数
numTrials : 正の整数
dClass : Drunk のサブクラス
numSteps 回移動する酔歩を, numTrials 回シミュレートする.
各実験の初期位置と最終位置との差をリストにして出力する."""
Homer = dClass()
origin = Location(0.0, 0.0)
distances = []
for t in range(numTrials):
f = Field()
f.addDrunk(Homer, origin)
distances.append(walk(f, Homer, numSteps))
return distances
def load(self, file_name, abstract_relation):
"""
This loads and compiles a collection of code snippets from a text file.
The snippets are appended to the content already in the CodeBase. Names cannot
match any of the names already in the CodeBase.
It requires a Relation Class for a language definition for compiling.
"""
field = Field(abstract_relation)
with open(file_name, 'r') as f:
txt = f.read().splitlines()
if not txt[0].startswith('.bopDB'):
raise ValueError
name = None
for line in txt[3:]:
if name is None:
if line == '.eof.':
return
name = line
source = None
sample = None
elif line.startswith('-'):
source_tuple = ()
elif line == '':
if source is None:
source = Source(source_tuple)
code = field.compile(source)
if code.type == Block.type_error:
raise ValueError
else:
self.add(code, source, name, sample)
name = None
else:
if source is None:
source_tuple = source_tuple + (line,)
else:
try:
pic = eval(line)
except Exception:
raise ValueError
sample = Block.new_picture(list_of_list=pic)
raise ValueError
class FieldController(object):
def __init__(self):
self.view = View()
self.field = Field()
def daily_show(self):
last_rabbit_location = ""
last_carrot_location = ""
exception = []
try:
last_rabbit_location = self.field.last_borned_rabbit.location
except Exceptions.NoMoreRabbit:
last_rabbit_location = " "
exception += ['No More Rabbit']
try:
last_carrot_location = self.field.last_created_carrot.location
except Exceptions.NoMoreCarrot:
last_carrot_location = " "
exception += ['No More Carrot']
except Exceptions.NoMoreRooms:
# TODO handel exception
exception += ['No More Room']
self.view.clear()
self.view.show(self.field.field_map,
self.field.date,
last_rabbit_location,
last_carrot_location,
self.field.number_of_rabbits,
self.field.number_of_carrots,
exception=exception)
def start(self):
if self.field.date == 1:
for _ in range(2):
self.field.add_rabbit(gender="Male")
self.field.add_rabbit(gender="Female")
self.field.add_carrot()
self.field.add_carrot()
self.daily_show()
self.life_loop()
def life_loop(self):
while True:
self.field.date += 1
self.field.add_carrot()
self.field.move_rabbits()
self.daily_show()
sleep(2)
def simWalks(numSteps, numTrials, dClass):
"""Assumes numSteps an int >= 0, numTrials an int > 0,
dClass a subclass of Drunk
Simulates numTrials walks of numSteps steps each.
Returns a list of the final distances for each trial"""
Homer = dClass()
origin = Location(0, 0)
distances = []
for t in range(numTrials):
f = Field()
f.addDrunk(Homer, origin)
# distances.append(round(walk(f, Homer, numTrials), 1))
#next line is the correction made in the text
distances.append(round(walk(f, Homer, numSteps), 1))
return distances
def get_input_fields(cls) -> List[Field]:
return [
Field('Name', 'task name', validate_nonempty_string,
'value must have len > 0'),
Field('Type', 'task type',
lambda x: validate_value_in_set(x, cls.valid_types),
f'value must be in {cls.valid_types}'),
Field('StartDate', 'task start date', validate_date_string,
'value must be date in YYYYMMDD format'),
Field('StartTime', 'task start time', validate_time_string,
'value must be floating-point number in [0.0, 23.75]'),
Field('Duration', 'task duration (minutes)',
validate_task_duration_string,
'value must be positive integer in [0, 3600]')
]
def main():
CardSet.loadCardSet("CardSet")
playerOne = Player("koala", CardSet.listCard)
playerTwo = Player("panda", CardSet.listCard)
print(sys.version)
i = 1
winner = None
while winner == None :
if i % 2 == 0 :
winner = Field.playTurn(playerOne, playerTwo)
else :
winner = Field.playTurn(playerTwo, playerOne)
i += 1
playerOne.toString()
playerTwo.toString()
print("Vainqueur : ", winner.name)
def __init__(self, width, height):
super(SubWindow, self).__init__()
self.width = width
self.height = height
self.setAttribute(QtCore.Qt.WA_DeleteOnClose)
self.isUntitled = True
widget = QtGui.QScrollArea()
self.qp = QtGui.QPainter()
if width and height:
self.field = Field(width, height)
self.setWidget(self.field)
self.life = Life(width, height, False)
self.reset()
self.field.cells = self.life.cells
def __init__(self):
self.numSetsMade = 0
self.numSetsTotal = 0
self.setsListTotal = []
self.setsMadeSoFar = []
self.cardChoices = []
self.deckManager = DeckManager()
self.timedModeFlag = False
self.gamediff = Difficulty.NOVICE
self.timeddiff = 0
self.numHints = 3 if self.gamediff == Difficulty.ADVANCED else 2
self.field = Field(3,4) if self.gamediff == Difficulty.ADVANCED else Field(3,3)
self.deckManager.placeCardsOnField(self.field)
if self.scanSetsOnField() != 4 + (2 if self.gamediff == Difficulty.ADVANCED else 0):
self.resetGame()
def findSolution(n, matrix): field = Field() field.createField(matrix) print(n) field.printField() currentBest = None for i in range(1,n+1): for j in range(5): newSolution = findForN(i, field) if (currentBest == None or newSolution.getCost() < currentBest.getCost()): currentBest = newSolution currentBest.printSolution(field.getMaxX(),field.getMaxY())
def LoadNextLevel(self):
self.level += 1
if self.level < 9:
source = file('LEVEL/' + str(self.level) + '.level')
self.music_name = str('MUSIC/' + source.readline().rstrip())
self.wave_max = int(source.readline())
self.first_wave_time = int(source.readline())
self.wave_time = int(source.readline())
self.res = int(source.readline())
self.upgrade_d = int(source.readline())
self.basic_tower_d = int(source.readline())
self.adv_tower_d = int(source.readline())
i = 0
line = source.readline()
line = line.split()
num_waves = int(line[0])
wave_type = line[1]
while (i < self.wave_max):
if i == num_waves:
line = source.readline()
line = line.split()
num_waves = int(line[0])
wave_type = line[1]
self.enemy_wave_description.append(wave_type)
i += 1
#initialize map from newly loaded self
self.the_map = Field('MAP/' + str(self.level) + '.map')
self.map_surface = self.the_map.get_map().convert()
self.grid = self.the_map.get_grid()
self.towers = self.the_map.towers
self.enemies = dict()
self.meter = WaveMeter(self.wave_max,(self.wave_time/40),(self.first_wave_time/40),self.enemy_wave_description)
#reset all main variables
self.current_level = pygame.image.load('IMG/level_' + str(self.level) + '_100.png').convert_alpha()
self.frame = 0
self.enemy_sent = 0
self.enemy_max = 0
self.enemy_level = 0
else:
self.game_state = 'end'
def loadFile(self, fileName):
file = QtCore.QFile(fileName)
if not file.open( QtCore.QFile.ReadOnly | QtCore.QFile.Text):
QtGui.QMessageBox.warning(self, "Reading error",
"Cannot read file %s:\n%s." % (fileName, file.errorString()))
return False
instr = QtCore.QTextStream(file)
start = False
width = 0
lines = []
while not instr.atEnd():
line = instr.readLine()
if width < len(line):
width = len(line)
if line[0] != '#':
start = True
lines.append(line)
if line[0] == '#' and start:
break
height = len(lines)
if not width or not height:
return False
self.width = width
self.height = height
self.field = Field(width, height)
self.setWidget(self.field)
self.life = Life(width, height, False)
self.field.cells = self.life.cells
y=0
for line in lines:
x = 0
for char in line:
if char == '*':
self.life.cells[x,y] = True
x += 1
y += 1
self.field.update()
self.setCurrentFile(fileName)
return True
import sys
from Field import Field
import subprocess
import platform
print("Starting Up Game")
print("This is Nogame the Game")
GameField = Field(10, 10)
GameField.addPlayer(4, 4)
GameField.Draw()
print("You see that big H?")
print("That's you,")
print("Press enter to confirm")
sys.stdin.read(1)
GameField.addTarget(1, 1)
GameField.Draw()
print("You see that T? \nThats your target. \nYou can move around with wasd.\n\nGo Get'em Tiger! ")
while(True):
input = sys.stdin.read(2)
output = GameField.MovePlayer(input, GameField.player)
GameField.Draw()
print(output)
class GameMenue(object):
def __init__(self, parent, player, modus, gui):
self.alreadyFinished = False
self.gui = gui
self.modus = modus # 0 = classic 1 = equal
self.player = player
self.rootNode = parent
self.divNodeGameMenue= avg.DivNode(parent = self.rootNode, size = self.rootNode.size, active = False)
self.background = avg.ImageNode(parent = self.divNodeGameMenue, href = "DatBG.png", size = self.divNodeGameMenue.size)
#--------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
self.winLooseMenu = WinLooseMenue(self.rootNode)
self.optionMenu = OptionMenue(self.rootNode)
self.menueLinkerXwert = int(self.divNodeGameMenue.size[0]/2- self.divNodeGameMenue.size[0]*0.04)
self.menueRechterXwert = int(self.divNodeGameMenue.size[0]/2+ self.divNodeGameMenue.size[0]*0.04)
self.rahmenbreite = int(self.divNodeGameMenue.size[0]*0.025)
self.yOben = int(self.divNodeGameMenue.size[1] * 0.05)
self.untereBeschraenkung = self.divNodeGameMenue.size[1] * 0.92 - self.rahmenbreite
self.xendFeld1 = self.menueLinkerXwert -self.rahmenbreite - self.divNodeGameMenue.size[1] * 0.03
self.xstartFeld1, self.yUnten = self.berechneLinkesXUntenYFeld1(self.xendFeld1, self.untereBeschraenkung,self.yOben)
sizefield = self.xendFeld1 - self.xstartFeld1
self.xstartFeld2 = self.menueRechterXwert +self.rahmenbreite + self.divNodeGameMenue.size[1] * 0.03
self.xendFeld2 = self.xstartFeld2 + sizefield
self.blocksize = (self.xendFeld1 - self.xstartFeld1 )/14
self.tetrishoehe = self.blocksize * 19
self.round = 1
self.rundenDauer = 180
self.speed = [700,650,600,550,500]
self.countOfSkillsActivated = 0
self.inverseControlActive = False
self.leftFreezeActive = False
self.rightFreezeActive = False
self.rotateFreezeActive = False
self.speedUpActive = False
self.makeBlockInvisibleActive = False
self.noPointsActive = False
self.initSounds()
#Gui initialisierung
self.initFeld(self.xstartFeld1, self.xendFeld1, self.yOben )
self.initFeld(self.xstartFeld2, self.xendFeld2, self.yOben )
#--------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
self.hoeheMitlererBalken = self.divNodeGameMenue.size[1] * 0.20
mittlererBalken = self.divNodeGameMenue.size[0]/2
self.timelimit = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = 0.022*self.divNodeGameMenue.size[1],
text ="TimeLimit",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
while(self.timelimit.size[0]>= (self.menueRechterXwert- self.menueLinkerXwert) | (self.timelimit.size[1]>= self.divNodeGameMenue.size[1]* 0.1 )):
self.timelimit.fontsize-=1
if(self.timelimit.fontsize<=0):
self.timelimit.fontsize= 1
break
fontS = self.timelimit.fontsize
self.hoeheMitlererBalken += fontS + fontS*0.5
#-----------------------------------------------------------------------------------------------------------------------------------------------------------
self.timerLimit = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text =str(self.rundenDauer ),
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += 4*fontS
self.timeLimitCounter = self.player.setInterval(1000, self.timerLCountDown)
#-----------------------------------------------------------------------------------------------------------------------------------------------------------
self.roundText = avg.WordsNode(pos = (mittlererBalken, self.hoeheMitlererBalken),
fontsize = fontS,
text ="Round",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += fontS + fontS*0.5
#-----------------------------------------------------------------------------------------------------------------------------------------------------------
self.roundNumber = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text =str(self.round),
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += 4*fontS
#----------------------------------------------------------------------------------------------------------------------------------------------------------
self.speedText = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text ="Speed",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += fontS + fontS*0.5
self.speedNumber = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text ="1",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += 4*fontS
self.scoreTeam1 = avg.WordsNode(pos = ((self.xstartFeld1 + self.xendFeld1)/2 , self.divNodeGameMenue.size[1] * 0.94),
fontsize = 0.035*self.divNodeGameMenue.size[1],
text ="Score : 100",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.scoreTeam2 = avg.WordsNode(pos = ((self.xstartFeld2 + self.xendFeld2)/2 , self.divNodeGameMenue.size[1] * 0.94),
fontsize = 0.035*self.divNodeGameMenue.size[1],
text ="Score : 100",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
#Optionevents
self.background.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.background, self.startOptionMenu)
self.optionMenu.buttonResume.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.optionMenu.buttonResume, self.stopOptionMenue)
self.optionMenu.buttonFinish.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.optionMenu.buttonFinish, self.finishEarly)
self.optionMenu.buttonSound.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.optionMenu.buttonSound, self.turnSoundOff)
self.yUnten = self.yOben + self.tetrishoehe
self.field1 = Field(self.xstartFeld1, self.xendFeld1, self.yOben, self.yUnten,self.blocksize,self.player,self,1, self.gui)
self.field2 = Field(self.xstartFeld2, self.xendFeld2, self.yOben, self.yUnten,self.blocksize,self.player,self,2, self.gui)
self.attackerNormalField1 = AttackerSkills(self.field1,self.player)
self.attackerNormalField2 = AttackerSkills(self.field2,self.player)
self.attackerSpezialonField1 = AttackerSpecials(self.field2, self.field1,self.player,self.gui)
self.attackerSpezialonField2 = AttackerSpecials(self.field1, self.field2,self.player,self.gui)
self.defenderSkillsField1 = DefenderSkills(self.field1, self.player)
self.defenderSkillsField2 = DefenderSkills(self.field2, self.player)
self.playSound("gameStart")
if(self.gui.lobbyMenu.modus != 2):
self.SkillActivator = self.player.setInterval(10000, self.activateOneSkill)
#print "Tetrisfeldbegrenzungen: lF1:",self.xstartFeld1," rF1: ",self.xendFeld1," lF1F2: ",self.xstartFeld2," rF2: ",self.xendFeld2," yO: ", self.yOben," yU: ", self.yUnten
#print "Ein Feld: Blocksize: ", self.blocksize, " Hoehe: ", self.tetrishoehe, " Breite: ", self.xendFeld1-self.xstartFeld1
#buttoms werden initialisiert
#fuehrt Bewegung des Felds auf
def eventMoveLinks(self,event):
self.field1.moveLeft()
def eventRotateLinks(self,event):
self.field1.rotateLeft()
def eventRotateRechts(self,event):
self.field1.rotateRight()
def eventMoveRechts(self,event):
self.field1.moveRight()
def eventSpeedDown(self,event):
self.field1.speedDown()
#-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
#-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
#-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
#-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
#-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
#-------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
#berechneLinkesXUntenYFeld1
def berechneLinkesXUntenYFeld1(self,rechteKante, untereSchranke, obereSchranke):
linkesX = int(self.divNodeGameMenue.size[0] * 0.03)
size = rechteKante - linkesX
size = self.naechsteZahlDurch14Teilbar(size)
while(True):
blocksize = size / 14
tetrishoehe = blocksize *19
if((untereSchranke - obereSchranke) >= tetrishoehe):
return ((rechteKante- size), obereSchranke-tetrishoehe)
else:
size-=14
#----------------------------------------------Rundenuebergang---------------------------------------------------------------------------------------------------
# Time Counter Fuer Game
def timerLCountDown (self):
count = int (self.timerLimit.text)
if(self.modus == 1):#EqualModus, dh reihen loeschen bei der mitte und fallender stein wird geloescht
if(count >=0):
if(count <= 0):
self.timerLimit.text = str(-3)
self.rundenWechsel()
if(self.round > 5):
self.player.clearInterval(self.timeLimitCounter)
self.endeSpiel()
else:
count -= 1
self.timerLimit.text = str(count)
else:
count+=1
self.timerLimit.text = str(count)
if(count >= 0):
self.fieldChanceRundenWechsel()
self.timerLimit.text = str(self.rundenDauer)
else:
if(count <= 0):#ClassicModus
self.timerLimit.text = str(self.rundenDauer)
self.field1.chanceSpeed(self.speed[self.round-1])
self.field2.chanceSpeed(self.speed[self.round-1])
self.round += 1
if(self.round > 5):
self.field1.clearForNextRound()
self.player.clearInterval(self.timeLimitCounter)
self.endeSpiel()
else:
self.roundNumber.text = str(self.round)
self.speedNumber.text = str(self.round)
else:
count -= 1
self.timerLimit.text = str(count)
def rundenWechsel(self):
self.field1.clearForNextRound()
self.field2.clearForNextRound()
self.resetField(self.field1)
self.resetField(self.field2)
self.round += 1
self.roundNumber.text = str(self.round)
self.speedNumber.text = str(self.round)
self.playSound("round")
def fieldChanceRundenWechsel(self):
self.field1.speed = self.speed[(self.round -1)]
self.field1.timer = self.field1.player.setInterval(self.field1.speed, self.field1.gravity)
self.field2.speed = self.speed[(self.round -1)]
self.field2.timer = self.field2.player.setInterval(self.field2.speed, self.field2.gravity)
self.field1.initBlock()
self.field2.initBlock()
#----------------------------------------------------------------------------------------------------------------------------------------------------------------
# beended spiel, deaktiviert alle intervalle und geht zum gametypemenue zurueck
def endeSpiel(self, winner = "check"):
if(not self.alreadyFinished):
if(winner == "check"):
scoreTeam1 = self.field1.score
scoreTeam2 = self.field2.score
if(scoreTeam1 == scoreTeam2):
winner = "Unentschieden"
elif(scoreTeam1 > scoreTeam2):
winner = "Team 1 gewinnt"
elif(scoreTeam1 < scoreTeam2):
winner = "Team 2 gewinnt"
if(self.gui.lobbyMenu.modus != 2):
self.player.clearInterval(self.SkillActivator)
self.alreadyFinished = True
self.field1.gravityPausieren()
self.field2.gravityPausieren()
self.player.clearInterval(self.timeLimitCounter)
self.divNodeGameMenue.active = False
self.optionMenu.divNodeOptionMenue.active = False
self.winLooseMenu.buttonNextGame.sensitive = True
self.winLooseMenu.buttonSomeOneWon.updateTextNode(winner)
self.winLooseMenu.divNodeWinLooseMenue.active = True
self.gui.sendMsgToAll("gameEnds")
self.playSound("victory")
def naechsteZahlDurch14Teilbar(self,value):
x = value % 14
return value - x
#initialisiert das grafische feld
def initFeld (self, startX, endX, oben):
#linker Rahmen
avg.RectNode(parent = self.divNodeGameMenue, sensitive = False,
pos = (startX -self.rahmenbreite , oben),
fillcolor = "000000", fillopacity = 1, color = "000000",
size = avg.Point2D(self.rahmenbreite ,self.tetrishoehe) #self.divNodeGameMenue.size[1]* 0.87
)
#rechter Rahmen
avg.RectNode(parent = self.divNodeGameMenue,
pos = (endX , oben), sensitive = False,
fillcolor = "000000", fillopacity = 1, color = "000000",
size = avg.Point2D(self.rahmenbreite, self.tetrishoehe)
)
#Boden
avg.RectNode(parent = self.divNodeGameMenue, sensitive = False,
pos = (startX-self.rahmenbreite, self.tetrishoehe+oben),
fillcolor = "000000", fillopacity = 1, color = "000000",
size = avg.Point2D(endX-startX+2*int(self.divNodeGameMenue.size[0]*0.025) ,self.rahmenbreite)
)
#event um optionmenu zu aktivieren
def startOptionMenu(self, event):
self.divNodeGameMenue.active = False
self.optionMenu.divNodeOptionMenue.active = True
self.field1.gravityPausieren()
self.player.clearInterval(self.timeLimitCounter)
#event um optionmenu zu deaktivieren
def stopOptionMenue(self, event):
self.divNodeGameMenue.active = True
self.optionMenu.divNodeOptionMenue.active = False
self.field1.gravityWiederStarten()
self.timeLimitCounter = self.player.setInterval(1000, self.timerLCountDown)
#event im menue zum beenden des spiels
def finishEarly(self, event):
self.field1.score = 0
self.field2.score = 0
self.endeSpiel()
#event im menue zum beenden der sounds
def turnSoundOff(self, event):
text = self.optionMenu.buttonSound.getTextNode().text
if(text == "Sound: ON"):
self.deactivateSound()
self.optionMenu.buttonSound.updateTextNode("Sound: OFF")
else:
self.activateSound()
self.optionMenu.buttonSound.updateTextNode("Sound: ON")
#schaltet nach 2 minuten einen cooldown fuer den Angreifer frei, nur im 3 und 4 modus aktiviert
def activateOneSkill(self):
randomNumber = random.randint(1,7)
freigeschalteterBlock = ""
if (randomNumber == 1):
if (self.rightFreezeActive == True):
self.activateOneSkill()
else:
self.rightFreezeActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockRightFreeze"
elif (randomNumber == 2):
if (self.leftFreezeActive == True):
self.activateOneSkill()
else:
self.leftFreezeActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockLeftFreeze"
elif (randomNumber == 3):
if (self.rotateFreezeActive == True):
self.activateOneSkill()
else:
self.rotateFreezeActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockRotateFreeze"
elif (randomNumber == 4):
if (self.noPointsActive == True):
self.activateOneSkill()
else:
self.noPointsActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockNoPoints"
elif (randomNumber == 5):
if (self.inverseControlActive == True):
self.activateOneSkill()
else:
self.inverseControlActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockInverseControl"
elif (randomNumber == 6):
if (self.makeBlockInvisibleActive == True):
self.activateOneSkill()
else:
self.makeBlockInvisibleActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockBlockInvisible"
else:
if (self.speedUpActive == True):
self.activateOneSkill()
else:
self.speedUpActive = True
self.countOfSkillsActivated += 1
self.playSound("skillUnlocked")
freigeschalteterBlock = "unlockSpeedUp"
if (self.countOfSkillsActivated == 7):
self.player.clearInterval(self.SkillActivator)
#sende
if(freigeschalteterBlock != ""):
if(self.gui.lobbyMenu.modus == 3):
ip = self.gui.lobbyMenu.playerIP[2]
print ip+ "###"+freigeschalteterBlock
self.gui.sendMsgToOne(ip,freigeschalteterBlock)
elif(self.gui.lobbyMenu.modus == 4):
ip1 = self.gui.lobbyMenu.playerIP[2]
ip2 = self.gui.lobbyMenu.playerIP[3]
self.gui.sendMsgToOne(ip1,freigeschalteterBlock)
self.gui.sendMsgToOne(ip2,freigeschalteterBlock)
# reseted das feld
def resetField(self, Field):
Field.inverseSteuerung = False
Field.freezeLeft = False
Field.freezeRight = False
Field.freezeRotate = False
Field.speedToGround = False
Field.superBlock = False
Field.bombActivated = False
Field.thunderActivated = False
Field.tetrisRainActivated = False
Field.noMoneyForYou = False
Field.rainDropCount = 0
#initialisiert die sounds
def initSounds(self):
self.deniedSound = avg.SoundNode(href="denied.mp3", loop=False, volume=1.0, parent = self.rootNode)
self.skillUnlockedSound = avg.SoundNode(href="skillUnlocked.mp3", loop=False, volume=1.0, parent = self.rootNode)
self.gameStartSound = avg.SoundNode(href="gameStart.mp3", loop=False, volume=1.0, parent = self.rootNode)
self.rotateSound = avg.SoundNode(href="rotate.wav", loop=False, volume=1.0, parent = self.rootNode)
self.victorySound = avg.SoundNode(href="victory.mp3", loop=False, volume=1.0, parent = self.rootNode)
self.thunderSound = avg.SoundNode(href="thunder.wav", loop=False, volume=1.0, parent = self.rootNode)
self.roundSound = avg.SoundNode(href="round.mp3", loop=False, volume=1.0, parent = self.rootNode)
self.rainSound = avg.SoundNode(href="rain.mp3", loop=False, volume=1.0, parent = self.rootNode)
self.bombSound = avg.SoundNode(href="bomb.wav", loop=False, volume=1.0, parent = self.rootNode)
self.cashSound = avg.SoundNode(href="cash.mp3", loop=False, volume=1.0, parent = self.rootNode)
#ueberprueft welchen sound er abspielen soll
def playSound(self, String):
if (String == "rain"):
self.rainSound.play()
elif (String == "bomb"):
self.bombSound.play()
elif (String == "cash"):
self.cashSound.play()
elif (String == "round"):
self.roundSound.play()
elif (String == "thunder"):
self.thunderSound.play()
elif (String == "victory"):
self.victorySound.play()
elif (String == "rotate"):
self.rotateSound.play()
elif (String == "denied"):
self.deniedSound.play()
elif (String == "gameStart"):
self.gameStartSound.play()
elif (String == "skillUnlocked"):
self.skillUnlockedSound.play()
else:
pass
#deactivates all sound nodes
def deactivateSound(self):
self.bombSound.volume = 0.0
self.cashSound.volume = 0.0
self.deniedSound.volume = 0.0
self.gameStartSound.volume = 0.0
self.rainSound.volume = 0.0
self.rotateSound.volume = 0.0
self.roundSound.volume = 0.0
self.skillUnlockedSound.volume = 0.0
self.thunderSound.volume = 0.0
#activates all sound nodes
def activateSound(self):
self.bombSound.volume = 1.0
self.cashSound.volume = 1.0
self.deniedSound.volume = 1.0
self.gameStartSound.volume = 1.0
self.rainSound.volume = 1.0
self.rotateSound.volume = 1.0
self.roundSound.volume = 1.0
self.skillUnlockedSound.volume = 1.0
self.thunderSound.volume = 1.0
def __init__(self, parent, player, modus, gui):
self.alreadyFinished = False
self.gui = gui
self.modus = modus # 0 = classic 1 = equal
self.player = player
self.rootNode = parent
self.divNodeGameMenue= avg.DivNode(parent = self.rootNode, size = self.rootNode.size, active = False)
self.background = avg.ImageNode(parent = self.divNodeGameMenue, href = "DatBG.png", size = self.divNodeGameMenue.size)
#--------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
self.winLooseMenu = WinLooseMenue(self.rootNode)
self.optionMenu = OptionMenue(self.rootNode)
self.menueLinkerXwert = int(self.divNodeGameMenue.size[0]/2- self.divNodeGameMenue.size[0]*0.04)
self.menueRechterXwert = int(self.divNodeGameMenue.size[0]/2+ self.divNodeGameMenue.size[0]*0.04)
self.rahmenbreite = int(self.divNodeGameMenue.size[0]*0.025)
self.yOben = int(self.divNodeGameMenue.size[1] * 0.05)
self.untereBeschraenkung = self.divNodeGameMenue.size[1] * 0.92 - self.rahmenbreite
self.xendFeld1 = self.menueLinkerXwert -self.rahmenbreite - self.divNodeGameMenue.size[1] * 0.03
self.xstartFeld1, self.yUnten = self.berechneLinkesXUntenYFeld1(self.xendFeld1, self.untereBeschraenkung,self.yOben)
sizefield = self.xendFeld1 - self.xstartFeld1
self.xstartFeld2 = self.menueRechterXwert +self.rahmenbreite + self.divNodeGameMenue.size[1] * 0.03
self.xendFeld2 = self.xstartFeld2 + sizefield
self.blocksize = (self.xendFeld1 - self.xstartFeld1 )/14
self.tetrishoehe = self.blocksize * 19
self.round = 1
self.rundenDauer = 180
self.speed = [700,650,600,550,500]
self.countOfSkillsActivated = 0
self.inverseControlActive = False
self.leftFreezeActive = False
self.rightFreezeActive = False
self.rotateFreezeActive = False
self.speedUpActive = False
self.makeBlockInvisibleActive = False
self.noPointsActive = False
self.initSounds()
#Gui initialisierung
self.initFeld(self.xstartFeld1, self.xendFeld1, self.yOben )
self.initFeld(self.xstartFeld2, self.xendFeld2, self.yOben )
#--------------------------------------------------------------------------------------------------------------------------------------------------------------------------------------
self.hoeheMitlererBalken = self.divNodeGameMenue.size[1] * 0.20
mittlererBalken = self.divNodeGameMenue.size[0]/2
self.timelimit = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = 0.022*self.divNodeGameMenue.size[1],
text ="TimeLimit",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
while(self.timelimit.size[0]>= (self.menueRechterXwert- self.menueLinkerXwert) | (self.timelimit.size[1]>= self.divNodeGameMenue.size[1]* 0.1 )):
self.timelimit.fontsize-=1
if(self.timelimit.fontsize<=0):
self.timelimit.fontsize= 1
break
fontS = self.timelimit.fontsize
self.hoeheMitlererBalken += fontS + fontS*0.5
#-----------------------------------------------------------------------------------------------------------------------------------------------------------
self.timerLimit = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text =str(self.rundenDauer ),
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += 4*fontS
self.timeLimitCounter = self.player.setInterval(1000, self.timerLCountDown)
#-----------------------------------------------------------------------------------------------------------------------------------------------------------
self.roundText = avg.WordsNode(pos = (mittlererBalken, self.hoeheMitlererBalken),
fontsize = fontS,
text ="Round",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += fontS + fontS*0.5
#-----------------------------------------------------------------------------------------------------------------------------------------------------------
self.roundNumber = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text =str(self.round),
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += 4*fontS
#----------------------------------------------------------------------------------------------------------------------------------------------------------
self.speedText = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text ="Speed",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += fontS + fontS*0.5
self.speedNumber = avg.WordsNode(pos = (mittlererBalken , self.hoeheMitlererBalken),
fontsize = fontS,
text ="1",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.hoeheMitlererBalken += 4*fontS
self.scoreTeam1 = avg.WordsNode(pos = ((self.xstartFeld1 + self.xendFeld1)/2 , self.divNodeGameMenue.size[1] * 0.94),
fontsize = 0.035*self.divNodeGameMenue.size[1],
text ="Score : 100",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
self.scoreTeam2 = avg.WordsNode(pos = ((self.xstartFeld2 + self.xendFeld2)/2 , self.divNodeGameMenue.size[1] * 0.94),
fontsize = 0.035*self.divNodeGameMenue.size[1],
text ="Score : 100",
parent = self.divNodeGameMenue,
color = "F0F0F0", font = "arial",
alignment = "center",
sensitive = False)
#Optionevents
self.background.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.background, self.startOptionMenu)
self.optionMenu.buttonResume.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.optionMenu.buttonResume, self.stopOptionMenue)
self.optionMenu.buttonFinish.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.optionMenu.buttonFinish, self.finishEarly)
self.optionMenu.buttonSound.connectEventHandler(avg.CURSORDOWN, avg.TOUCH, self.optionMenu.buttonSound, self.turnSoundOff)
self.yUnten = self.yOben + self.tetrishoehe
self.field1 = Field(self.xstartFeld1, self.xendFeld1, self.yOben, self.yUnten,self.blocksize,self.player,self,1, self.gui)
self.field2 = Field(self.xstartFeld2, self.xendFeld2, self.yOben, self.yUnten,self.blocksize,self.player,self,2, self.gui)
self.attackerNormalField1 = AttackerSkills(self.field1,self.player)
self.attackerNormalField2 = AttackerSkills(self.field2,self.player)
self.attackerSpezialonField1 = AttackerSpecials(self.field2, self.field1,self.player,self.gui)
self.attackerSpezialonField2 = AttackerSpecials(self.field1, self.field2,self.player,self.gui)
self.defenderSkillsField1 = DefenderSkills(self.field1, self.player)
self.defenderSkillsField2 = DefenderSkills(self.field2, self.player)
self.playSound("gameStart")
if(self.gui.lobbyMenu.modus != 2):
self.SkillActivator = self.player.setInterval(10000, self.activateOneSkill)
def __init__(self, id, alpha):
Field.__init__(self, id)
self.alpha = alpha
#test class to view map design, not used in game
import pygame
from pygame.locals import *
from Field import Field
import sys
filename = sys.argv[1] #read command line argument for map file name
source = file(filename)
pygame.init()
screen = pygame.display.set_mode((600,600))
pygame.display.set_caption(filename)
background = pygame.Surface(screen.get_size())
background = background.convert()
background.fill(((255, 255, 255)))
the_map = Field(filename)
map_surface = the_map.get_map().convert()
background.blit(map_surface, (0,0))
while True:
for event in pygame.event.get():
if event.type == QUIT:
exit()
screen.blit(background, (0,0))
pygame.display.flip()
class Dungeon(Scene):
def __init__(self, engine):
self.engine = engine
name = self.engine.dungeon #name of the dungeon
path = os.path.join("places", name) #path to the dungeon
self.dungeonini = Configuration(os.path.join("..", "data", path, "dungeon.ini")).dungeon
#config file
self.formations = [f.strip() for f in self.dungeonini.formations.split(",")]
self.otherevents = [e.strip() for e in self.dungeonini.events.split(",")]
self.field = Field(self, path) #the field data (grid)
#ogg or mp3 support for background music
self.music = BGMObj(os.path.join(path, "bgm.mp3"), fullpath = True)
if not self.music:
self.music = BGMObj(os.path.join(path, "bgm.ogg"), fullpath = True)
w,h = self.engine.w, self.engine.h
#background image
self.background = ImgObj(os.path.join(path, "background.png"))
self.background.setScale(self.engine.w, self.engine.h, inPixels = True)
self.background.setPosition(w/2,h/2)
#displays the current map direction
self.compassbase = ImgObj(os.path.join("scenes", "dungeon", "compassbase.png"))
self.compassbase.setPosition(w*.1, h*.1)
self.compassbase.setScale(256, 256, True)
self.compass = ImgObj(os.path.join("scenes", "dungeon", "compass.png"))
self.compass.setPosition(w*.1, h*.1)
self.compass.setScale(256, 256, True)
#displays coordinates of the player
self.font = FontObj("default.ttf", size = 32)
self.font.setPosition(w*.5,h*.1)
#displays player height
self.bigFont = FontObj("default.ttf", size = 72)
self.bigFont.setPosition(w*.8,h*.9)
self.selectedPos = self.field.playerPos #selected position for movement
self.distance = 0
#camera controls
self.position = [w/2,h/2]
self.panX = w/2
self.panY = h/2
self.cameraMotion = False
self.angle = 135.0
if self.field.playerPos[0] > self.field.dimensions[0]/2:
if self.field.playerPos[1] > self.field.dimensions[1]/2:
self.angle = 225.0
else:
self.angle = 135.0
else:
if self.field.playerPos[1] > self.field.dimensions[1]/2:
self.angle = 45.0
else:
self.angle = 315.0
self.mode = 0 #0 = view, 1 = action menu, 2 = move
self.actionMenu = MenuObj(self, ["Move", "Menu", "Escape"], (w*.8, h*.25), window = "window.png")
self.moveKeys = {} #keys used for tile selection
self.updateKeys()
#makes sure to flip input keys for selecting a tile when the map is rotated
# so it makes sense
# down is towards the camera, up is away
def updateKeys(self):
if self.angle == 45.0 or self.angle == 305.0:
self.moveKeys[Input.DnButton] = [(self.selectedPos[0], self.selectedPos[1] + 1), 1]
self.moveKeys[Input.UpButton] = [(self.selectedPos[0], self.selectedPos[1] - 1),-1]
else:
self.moveKeys[Input.UpButton] = [(self.selectedPos[0], self.selectedPos[1] + 1), 1]
self.moveKeys[Input.DnButton] = [(self.selectedPos[0], self.selectedPos[1] - 1),-1]
if self.angle == 45.0 or self.angle == 215.0:
self.moveKeys[Input.RtButton] = [(self.selectedPos[0] + 1, self.selectedPos[1]), 1]
self.moveKeys[Input.LtButton] = [(self.selectedPos[0] - 1, self.selectedPos[1]),-1]
else:
self.moveKeys[Input.LtButton] = [(self.selectedPos[0] + 1, self.selectedPos[1]), 1]
self.moveKeys[Input.RtButton] = [(self.selectedPos[0] - 1, self.selectedPos[1]),-1]
def keyPressed(self, key, char):
#view mode
# allows panning and rotating of the map
if self.mode == 0:
if key == Input.CButton:
self.angle += 90.0
self.updateKeys()
if key == Input.DButton:
self.angle -= 90.0
self.updateKeys()
if key == Input.RtButton:
self.panX += _panRate
if key == Input.LtButton:
self.panX -= _panRate
if key == Input.UpButton:
self.panY += _panRate
if key == Input.DnButton:
self.panY -= _panRate
#open action menu
if key == Input.AButton:
self.mode = 1
#resets pan position to center
if key == Input.BButton:
self.panX = w/2
self.panY = h/2
#selecting action
elif self.mode == 1:
self.actionMenu.keyPressed(key)
if key == Input.BButton:
self.mode = 0
#selecting tile to move to
elif self.mode == 2:
if key in self.moveKeys.keys():
try:
heightdiff = self.field.grid[self.moveKeys[key][0]].height - self.field.grid[self.field.playerPos].height
newDistance = self.distance + self.moveKeys[key][1]
if not (abs(heightdiff) > 1 or abs(newDistance) > 1):
self.selectedPos = self.moveKeys[key][0]
self.distance = newDistance
except:
return
self.field.setSelected(self.selectedPos)
self.field.updateList()
self.updateKeys()
#move player to selected position
if key == Input.AButton:
self.distance = 0
self.field.playerPos = self.selectedPos
self.field.grid[self.field.playerPos].show()
self.field.deselect()
self.field.updateList()
self.mode = 0
#cancel movement
if key == Input.BButton:
self.selectedPos = self.field.playerPos
self.field.deselect()
self.field.updateList()
self.mode = 1
#menu input
def select(self, index):
if index == 0:
self.mode = 2
self.field.setSelected(self.selectedPos)
self.field.updateList()
#leave dungeon
elif index == 2:
self.engine.dungeon = None
self.engine.viewport.changeScene("Maplist")
def panTo(self, newPosition):
#maker sure new position is a list, not tuple
newPosition = list(newPosition)
#force to new position when selecting tiles
if self.mode == 2:
self.position = newPosition
self.cameraMotion = False
if self.position[0] is not newPosition[0]:
if abs(newPosition[0] - self.position[0]) > .5:
self.position[0] += (newPosition[0]-self.position[0])*.05
else:
self.position[0] = newPosition[0]
self.cameraMotion = True
if self.position[1] is not newPosition[1]:
if abs(newPosition[1] - self.position[1]) > .5:
self.position[1] += (newPosition[1]-self.position[1])*.05
else:
self.position[1] = newPosition[1]
self.cameraMotion = True
def render(self, visibility):
w,h = self.engine.w, self.engine.h
self.panTo((self.panX, self.panY))
if not self.mode == 0:
self.panX = w/2
self.panY = h/2
if self.mode == 2:
self.field.setCenter(self.selectedPos)
else:
self.field.setCenter()
glPushMatrix()
glTranslatef(1,1,-1000)
self.background.draw()
glPopMatrix()
glPushMatrix()
glTranslatef(self.position[0],self.position[1],-32.0*(max(self.field.dimensions[0],self.field.dimensions[1])+max(self.field.playerPos[0], self.field.playerPos[1])))
if not self.field.rotateTo(self.angle):
if self.angle > 360:
self.angle %= 360
self.field.angle = self.angle
if self.angle < 0:
self.angle += 360
self.field.angle = self.angle
else:
self.cameraMotion = True
self.field.render()
glPopMatrix()
self.bigFont.setText("%iH" % self.field.grid[self.selectedPos].height)
self.bigFont.draw()
'''Debug Position
if self.mode == 2:
location = "%s > %s" % (str(self.field.playerPos), str(self.selectedPos))
else:
location = "%s" % str(self.field.playerPos)
self.font.setText(location)
self.font.draw()
'''
self.compassbase.draw()
self.compass.setAngle(self.field.angle)
self.compass.draw()
if self.mode == 1:
self.actionMenu.render()
B = 0.1 # [T]
E = 0.0 # [V/m]
V0 = numpy.array([1e5, 2e5, 1.5e5]) # initial velocity, [m/s]
X0 = numpy.array([0., 0., 0.]) # initial position
electrons = numpy.empty(Ne, dtype=Particle)
ions = numpy.empty(Ni, dtype=Particle)
electrons[0] = Particle(X0, V0, -e, me, dt_e)
field = Field(Nx, Ny, Nz, Lx, Ly, Lz)
field.initE(E)
field.initB(B)
trace = numpy.zeros((3, 100))
for i in range(100):
field.updateTho(electrons, ions)
field.updateParticleProps(electrons)
for particle in electrons:
particle.updateVX()
print(i, electrons[0].X)
trace[:, i] = electrons[0].X.copy()
class SubWindow(QtGui.QScrollArea):
sequenceNumber = 1
x = 0
y = 0
timerId = 0
step = 2
delay = 50
cellsCount = 0
def __init__(self, width, height):
super(SubWindow, self).__init__()
self.width = width
self.height = height
self.setAttribute(QtCore.Qt.WA_DeleteOnClose)
self.isUntitled = True
widget = QtGui.QScrollArea()
self.qp = QtGui.QPainter()
if width and height:
self.field = Field(width, height)
self.setWidget(self.field)
self.life = Life(width, height, False)
self.reset()
self.field.cells = self.life.cells
def isSimulate(self):
if self.timerId:
return True
return False
def reset(self):
self.life.reset(self.width, self.height)
self.field.cells = self.life.cells
self.field.update()
if self.timerId:
self.killTimer(self.timerId)
self.timerId = 0
def changeSpeed(self, speed):
self.delay = speed
if self.timerId:
self.killTimer(self.timerId)
self.timerId = self.startTimer(speed)
def play(self):
if not self.timerId:
self.timerId = self.startTimer(self.delay)
else:
self.killTimer(self.timerId)
self.timerId = 0
def nextStep(self):
self.field.cells = self.life.simulate()
self.field.update()
def timerEvent(self, event):
self.field.cells = self.life.simulate()
self.field.update()
def currentFile(self):
return self.curFile
def new(self):
self.isUntitled = True
self.curFile = "Game %d" % SubWindow.sequenceNumber
SubWindow.sequenceNumber += 1
self.setWindowTitle(self.curFile + '[*]')
def loadFile(self, fileName):
file = QtCore.QFile(fileName)
if not file.open( QtCore.QFile.ReadOnly | QtCore.QFile.Text):
QtGui.QMessageBox.warning(self, "Reading error",
"Cannot read file %s:\n%s." % (fileName, file.errorString()))
return False
instr = QtCore.QTextStream(file)
start = False
width = 0
lines = []
while not instr.atEnd():
line = instr.readLine()
if width < len(line):
width = len(line)
if line[0] != '#':
start = True
lines.append(line)
if line[0] == '#' and start:
break
height = len(lines)
if not width or not height:
return False
self.width = width
self.height = height
self.field = Field(width, height)
self.setWidget(self.field)
self.life = Life(width, height, False)
self.field.cells = self.life.cells
y=0
for line in lines:
x = 0
for char in line:
if char == '*':
self.life.cells[x,y] = True
x += 1
y += 1
self.field.update()
self.setCurrentFile(fileName)
return True
def save(self):
if self.isUntitled:
return self.saveAs()
else:
return self.saveFile(self.curFile)
def saveAs(self):
fileName, filtr = QtGui.QFileDialog.getSaveFileName(self, "Save As",
self.curFile+'.lif')
if not fileName:
return False
return self.saveFile(fileName)
def saveFile(self, fileName):
file = QtCore.QFile(fileName)
if not file.open(QtCore.QFile.WriteOnly | QtCore.QFile.Text):
QtGui.QMessageBox.warning(self, "Writing error",
"Cannot write file %s:\n%s." % (fileName, file.errorString()))
return False
outstr = QtCore.QTextStream(file)
QtGui.QApplication.setOverrideCursor(QtCore.Qt.WaitCursor)
for cells in array(self.life.cells).T:
for cell in cells:
if cell:
outstr << '*'
else:
outstr << '.'
outstr << "\n"
QtGui.QApplication.restoreOverrideCursor()
self.setCurrentFile(fileName)
return True
def setCurrentFile(self, fileName):
self.curFile = QtCore.QFileInfo(fileName).canonicalFilePath()
self.isUntitled = False
self.setWindowTitle(self.userFriendlyCurrentFile() + "[*]")
def userFriendlyCurrentFile(self):
return self.strippedName(self.curFile)
def currentFile(self):
return self.curFile
def strippedName(self, fullFileName):
return QtCore.QFileInfo(fullFileName).fileName()
def jouer():
pygame.init()
fenetre = pygame.display.set_mode(screen_size)
# definir tous fonds
fondEcran = ["salle", "Terrain", "terrain3", "terrain4", "terrain5", "terrain6", "panda_roux"]
#choix aléatoire du fond
numFond = random.randint(0, len(fondEcran) - 1)
fond = pygame.image.load(fondEcran[numFond] + ".png").convert_alpha()
menu_fond = pygame.image.load("fondPython.jpeg").convert()
fenetre.blit(menu_fond, (0,0))
carte_hand = 0, 500, 1300, 800
carte_posx = 200
fields = []
eposy = 100
menus = [
{"element" : pygame.image.load("bouton_1_vsIA.png").convert_alpha(), "name" : "jouer VS IA", "posx" : 10, "posy" : 100 },
{"element" : pygame.image.load("pvp.png").convert_alpha(), "name" : "jouer VS joueur", "posx" : 900, "posy" : 100 },
{"element" : pygame.image.load("bouton_quitter.png").convert_alpha(), "name" : "quitter", "posx" : 30, "posy" : 250 }
]
endOfRound = {"button" : pygame.image.load("endOfRound.png").convert_alpha(), "name" : "yop", "posx" : 1000, "posy" : 350}
for i, menu in enumerate(menus) :
menu_size = menu["element"].get_rect()
menu["posx"] = (screen_size[0] / 2) - (menu_size[2] / 2)
menu["posy"] = eposy
fenetre.blit(menu["element"], (menu["posx"], menu["posy"]))
eposy += (menu_size[3] / 2) + menu_size[3]
pygame.display.flip()
mode_game = 0
continuer = 1
continuer_menu = 1
continuer_game = 1
continuer_gameMenu = 0
saisi_carte = 0
saisi_attack = 0
carte_selection_id = 0
carte_selection = ()
carte_attack_id = 0
carte_attack = ()
deplacement = 5
positionOk = 0
full = 0
pygame.key.set_repeat(400, 30)
winner = None
turn = ["one", "two"]
while continuer : # boucle général
if continuer_menu == 1:
fenetre.blit(menu_fond, (0,0))
for menu in menus :
fenetre.blit(menu["element"], (menu["posx"], menu["posy"]))
pygame.display.flip()
while continuer_menu: # boucle du menu
for event in pygame.event.get(): #On parcours la liste de tous les événements reçus
if event.type == QUIT: #Si un de ces événements est de type QUIT
continuer_game = 0
continuer_menu = 0
winner = False
continuer = 0
if event.type == KEYDOWN : # lorsqu'on appui sur un touche du clavier
if event.key == K_ESCAPE: # esc on quitte le jeu
continuer_game = 0
continuer_menu = 0
winner = False
continuer = 0
if event.type == MOUSEBUTTONUP:
eposx = event.pos[0]
eposy = event.pos[1]
if event.button == 1 :
for menu in menus:
menu_size = menu["element"].get_rect()
posx, posy = menu["posx"], menu["posy"]
if( ( eposx >= posx and eposx <= (menu_size[2] + posx) ) and ( eposy >= posy and eposy <= (menu_size[3] + posy) ) ):
if menu["name"] == "jouer VS IA" :
mode_game = 1
continuer_menu = 0
continuer_game = 1
continuer = 1
#initialiser les cartes du joueur 1
CardSet.loadCardSet("cardSet")
playerOne = Player("koala", CardSet.listCardG, False)
#initilaiser les cartes du joueur 2
CardSet.loadCardSet("cardSet2")
playerTwo = Player("panda", CardSet.listCardG, True)
winner = None
t = random.randint(0, len(turn) - 1)
turnIdx = t
i = 0
#fenetre = pygame.display.set_mode(screen_size, FULLSCREEN)
if menu["name"] == "jouer VS joueur" :
mode_game = 2
continuer_menu = 0
continuer_game = 1
continuer = 1
#initialiser les cartes du joueur 1
CardSet.loadCardSet("cardSet")
playerOne = Player("koala", CardSet.listCardG, False)
#initilaiser les cartes du joueur 2
CardSet.loadCardSet("cardSet2")
playerTwo = Player("panda", CardSet.listCardG, True)
winner = None
t = random.randint(0, len(turn) - 1)
turnIdx = t
i = 0
#fenetre = pygame.display.set_mode(screen_size, FULLSCREEN)
if menu["name"] == "quitter" :
mode_game = 0
continuer_menu = 0
continuer_game = 0
winner = False
continuer = 0
while winner == None :
continuer_game = 1
if full :
fenetre = pygame.display.set_mode(screen_size, FULLSCREEN)
else :
fenetre = pygame.display.set_mode(screen_size)
lifeBack,lifeBackEnemy,life,lifeEnemy, playerOne, playerTwo = carteHandAndField(playerOne, playerTwo)
fenetre.blit(lifeBackEnemy, (0, 0))
while continuer_game: # boucle du jeu
fenetre.blit(fond, (0, 0))
cartePosition(fenetre, playerOne, playerTwo, endOfRound)
# health player and enemy
posLifeBack = screen_size[0] - 120, (screen_size[1] - 100)
posLifeBackEnemy = screen_size[0] - 120, 5
fenetre.blit(lifeBack, posLifeBack)
fenetre.blit(lifeBackEnemy, posLifeBackEnemy)
lifeBackSize = lifeBack.get_rect()
lifeBackEnemySize = lifeBackEnemy.get_rect()
fenetre.blit(life, (posLifeBack[0] + lifeBackSize[2] / 2 - 15, posLifeBack[1] + lifeBackSize[3] / 2))
fenetre.blit(lifeEnemy, (posLifeBackEnemy[0] + lifeBackEnemySize[2] / 2 - 15, posLifeBackEnemy[1] + lifeBackEnemySize[3] / 2))
# mana player and enemy
fenetre.blit(pygame.image.load("mana.png").convert_alpha(), (screen_size[0] - 50, 40))
fenetre.blit(pygame.image.load("mana.png").convert_alpha(), (screen_size[0] - 50,screen_size[1] - 60))
if(playerTwo.mana > 0):
fenetre.blit(pygame.image.load(str(playerTwo.mana) + ".png").convert_alpha(), (screen_size[0] - 35,55))
else:
fenetre.blit(pygame.image.load("0.png").convert_alpha(), (screen_size[0] - 35,55))
if(playerOne.mana > 0):
fenetre.blit(pygame.image.load(str(playerOne.mana) + ".png").convert_alpha(), (screen_size[0] - 35,screen_size[1] - 45))
else :
fenetre.blit(pygame.image.load("0.png").convert_alpha(), (screen_size[0] - 35,screen_size[1] - 45))
pygame.display.flip()
for event in pygame.event.get(): #On parcours la liste de tous les événements reçus
if event.type == QUIT: #Si un de ces événements est de type QUIT
continuer_menu = 0
continuer_game = 0
winner = False
continuer = 0 #On arrête la boucle
if event.type == KEYDOWN : # lorsqu'on appui sur un touche du clavier
if event.key == K_ESCAPE: # esc on retourne au menu du jeu
continuer_game = 1
continuer_menu = 0
continuer_gameMenu = 1
continuer = 1
if event.type == MOUSEBUTTONUP:
eposx = event.pos[0]
eposy = event.pos[1]
if event.button == 1:
print("saisi_carte : " + str(saisi_carte))
print("saisi_attack : " + str(saisi_attack))
if saisi_carte == 0 :
if event.button == 1:
for i, carte in enumerate(playerOne.hand):
carte_size = carte.carte["carte"].get_rect()
posx, posy = carte.carte["posx"], carte.carte["posy"]
if ( ( eposx >= posx and eposx <= (carte_size[2] + posx) ) and ( eposy >= posy and eposy <= (carte_size[3] + posy) ) ):
pygame.mouse.set_cursor(*pygame.cursors.arrow)
saisi_attack = 0
saisi_carte = 1
carte_selection = carte
carte_selection_id = i
roundButton_size = endOfRound["button"].get_rect()
if ( ( eposx >= endOfRound["posx"] and eposx <= (roundButton_size[2] + endOfRound["posx"]) ) and ( eposy >= endOfRound["posy"] and eposy <= (roundButton_size[3] + endOfRound["posy"]) ) ):
for c in playerOne.field :
c.carte["statu"] = 0
pygame.mouse.set_cursor(*pygame.cursors.arrow)
saisi_attack = 0
playerTwo.pickUp(playerTwo.deck)
if mode_game == 1 :
winner = Field.playTurn2(playerTwo, playerOne)
playerOne.pickUp(playerOne.deck)
saisi_attack = 0
continuer_game = 0
elif mode_game == 2 :
fenetre.blit(fond, (0, 0))
fenetre.blit(pygame.image.load("wait.png").convert_alpha(), (0, 0))
pygame.display.flip()
time.sleep(5)
playerOne, playerTwo = playerTwo, playerOne
carteHandAndField(playerOne, playerTwo)
saisi_attack = 0
continuer_game = 0
else :
saisi_carte = 2
carte_selection_id = 0
if ( (eposx >= carte_hand[0] and eposx < carte_hand[2] ) and (eposy < carte_hand[1]) ):
if(carte.carte["cost"] <= playerOne.mana) :
playerOne.deploy(playerTwo, carte)
Power.attackServantMultiple(playerTwo, carte)
Power.addHpMaxMultiple(playerOne, playerTwo, carte)
Power.pickupCard(playerOne, carte)
Power.dropCard(carte, playerTwo)
if len(playerTwo.field) > 0 :
for c in playerTwo.field :
carte_size = c.carte["carte"].get_rect()
posx, posy = c.carte["posx"], c.carte["posy"]
if ( (event.button == 1) and ( eposx >= posx and eposx <= (carte_size[2] + posx) ) and ( eposy >= posy and eposy <= (carte_size[3] + posy) ) ):
Power.attackServant(playerOne, playerTwo, carte)
Power.addHpMax(playerOne, playerTwo, carte)
print("cout mana : " + str(carte.carte["cost"]))
continuer_game = 0
if saisi_attack == 0 and saisi_carte == 0 :
print("saisi == 0")
if event.button == 1 :
for i, carte in enumerate(playerOne.field):
carte_size = carte.carte["carte"].get_rect()
posx, posy = carte.carte["posx"], carte.carte["posy"]
if ( ( eposx >= posx and eposx <= (carte_size[2] + posx) ) and ( eposy >= posy and eposy <= (carte_size[3] + posy) ) ):
if( carte.carte["statu"] == 0 ) :
saisi_attack = 1
pygame.mouse.set_cursor(*pygame.cursors.diamond)
carte_attack = carte
carte_attack_id = i
if saisi_attack != 0 :
if event.button == 1 :
lifeBackEnemySize = lifeBackEnemy.get_rect()
xPos = posLifeBackEnemy[0] + lifeBackEnemySize[2] / 2 - 15
yPos = posLifeBackEnemy[1] + lifeBackEnemySize[3] / 2
if ( ( eposx >= xPos and eposx <= (lifeBackEnemySize[2] + xPos) ) and ( eposy >= yPos and eposy <= (lifeBackEnemySize[3] + yPos) ) ):
#attack les points de vie adverse
pygame.mouse.set_cursor(*pygame.cursors.arrow)
carte_attack.newFight(playerOne, playerTwo)
carte_attack.carte["statu"] = 1
saisi_attack = 0
continuer_game = 0
for i, carte in enumerate(playerTwo.field):
carte_size = carte.carte["carte"].get_rect()
posx, posy = carte.carte["posx"], carte.carte["posy"]
if ( ( eposx >= posx and eposx <= (carte_size[2] + posx) ) and ( eposy >= posy and eposy <= (carte_size[3] + posy) ) ):
# attack carte adverse
print("attack")
carte_attack.newFight(playerOne, playerTwo, carte)
pygame.mouse.set_cursor(*pygame.cursors.arrow)
carte_attack.carte["statu"] = 1
saisi_attack = 0
continuer_game = 0
break
if ( ( eposx < posx and eposx > (carte_size[2] + posx) ) and ( eposy < posy and eposy > (carte_size[3] + posy) ) or ( eposx > xPos and eposx < (lifeBackEnemySize[2] + xPos) ) and ( eposy < yPos and eposy > (lifeBackEnemySize[3] + yPos) )):
pygame.mouse.set_cursor(*pygame.cursors.arrow)
saisi_attack = 0
if saisi_carte == 1 :
if event.type == MOUSEMOTION :
eposx = event.pos[0]
eposy = event.pos[1]
carte = playerOne.hand[carte_selection_id]
carte.carte["posx"], carte.carte["posy"] = (event.pos[0] - (carte_size[2] / 2) ), (event.pos[1] - (carte_size[3] / 2) )
pygame.display.flip()
if saisi_carte == 2:
saisi_carte = 0
while continuer_gameMenu :
full, continuer_gameMenu, winner, continuer_game = menuJeux(fenetre)
if(playerOne.health <= 0):
winner = playerTwo.name
continuer_game = 0
continuer_menu = 1
if(playerTwo.health <= 0):
winner = playerOne.name
continuer_game = 0
continuer_menu = 1
if(winner != None):
print("Winner : " + str(winner))
def findSolution(n, matrix):
field = Field()
field.createField(matrix)
print(n)
field.printField()
solutions = Queue()
minSolution = None
solution = Solution(field)
greenhouses = []
for i in range(len(field.getCoords())):
corner1 = field.getCoords()[i]
for j in range(i,len(field.getCoords())):
corner2 = field.getCoords()[j]
greenhouse = Greenhouse(corner1.x,corner2.x,corner1.y,corner2.y)
for coord in field.getCoords():
if greenhouse.containsCoord(coord.x, coord.y):
greenhouse.addContainedCoordinate(coord)
if (greenhouse.getWastedCoordinates() < 10):
greenhouses.append(greenhouse)
# if (corner1.y==6 and corner1.x==2 and
# greenhouse.getNumberOfContainedCoordinates() == 10 and
# greenhouse.getWastedCoordinates() == 0):
# solution = []
# solution.append(greenhouse)
# newSolution = Solution(field)
# newSolution.setGreenhouses(solution)
# print(len(greenhouses))
# newSolution.printSolution()
sorted(greenhouses, key=Greenhouse.getWastedCoordinates, reverse=True)
nextQueue = Queue()
for i in range(1,n+1):
print(i)
if (not nextQueue.empty()):
solutions = nextQueue
else:
solutions.put((0,[]))
while(not solutions.empty()):
# print(solutions.qsize())
sol = solutions.get()
index = sol[0]
solution = sol[1]
if (len(solution) == i-1):
# nextQueue.put((0,list(solution)))
left = None
right = None
top = None
bottom = None
for coord in field.getCoords():
inGreenhouse = False
for greenhouse in solution:
inGreenhouse = inGreenhouse or greenhouse.containsCoord(coord.x,coord.y)
if (not inGreenhouse):
if (left == None or coord.x < left):
left = coord.x
if (right == None or coord.x > right):
right = coord.x
top = coord.y
if (top == None or coord.y < top):
if (bottom == None or coord.y > bottom):
bottom = coord.y
if (not left == None):
greenhouse = Greenhouse(left,right,top,bottom)
overlaps = False
for setGreenhouse in solution:
if (setGreenhouse.overlaps(greenhouse)):
overlaps = True
break
if (not overlaps):
solution.append(greenhouse)
newSolution = Solution(field)
newSolution.setGreenhouses(solution)
if (minSolution == None or newSolution.computeCost() < minSolution.computeCost()):
minSolution = newSolution
else:
for ind in range(len(greenhouses)):
overlaps = False
greenhouse = greenhouses[ind]
for setGreenhouse in solution:
if (setGreenhouse.overlaps(greenhouse)):
overlaps = True
break
if (not overlaps):
newSolution = list(solution)
newSolution.append(greenhouse)
solutions.put((ind,newSolution))
minSolution.printSolution()
f = open('rectangles.txt')
wholeFile = f.read()
tasks = wholeFile.split("\n\n")
task = tasks[2]
lines = task.split("\n")
n = int(lines[0])
matrix = "\n".join(lines[1:])
findSolution(n,matrix)
class Game(object):
def __init__(self):
#filename variables
self.music_name = ''
self.map_name = ''
self.level_image = ''
#total enemy waves
self.wave_max = 0
#time before first wave
self.first_wave_time = 0
#time between waves after first
self.wave_time = 0
#starting player self
self.start_res = 0
#letter length for words in typer
self.basic_tower_d = 3
self.adv_tower_d = 3
self.upgrade_d = 3
self.enemy_wave_description = list()
self.level = 0
self.game_state = 'start_menu'
#display frame counter
self.frame = 0
#total number of enemies sent
self.enemy_sent = 0
#total number of enemies that needs to be sent
self.enemy_max = 0
#enemy level
self.enemy_level = 0
#user resource total
self.res = 700
#map for current level
self.the_map = Field('MAP/1.map')
self.map_surface = self.the_map.get_map().convert()
self.grid = self.the_map.get_grid()
self.towers = self.the_map.towers
self.enemies = dict()
#initialize typer
self.typer = Typer(3,None,1,0,0)
self.typer.kill()
self.time = 0
self.typing_timer = 0
self.wave_meter = None
#title screen images
self.title1 = pygame.image.load('IMG/title1.png').convert()
self.title2 = pygame.image.load('IMG/title2.png').convert()
#game over image
self.the_end = pygame.image.load('IMG/end.png').convert()
self.res_img = pygame.image.load('IMG/res_75.png').convert_alpha()
self.level_finish = pygame.image.load('IMG/level_finish.png').convert()
self.loading = pygame.image.load('IMG/loading.png').convert_alpha()
self.help_screen = pygame.image.load('IMG/help.png').convert()
#load a new level
def LoadNextLevel(self):
self.level += 1
if self.level < 9:
source = file('LEVEL/' + str(self.level) + '.level')
self.music_name = str('MUSIC/' + source.readline().rstrip())
self.wave_max = int(source.readline())
self.first_wave_time = int(source.readline())
self.wave_time = int(source.readline())
self.res = int(source.readline())
self.upgrade_d = int(source.readline())
self.basic_tower_d = int(source.readline())
self.adv_tower_d = int(source.readline())
i = 0
line = source.readline()
line = line.split()
num_waves = int(line[0])
wave_type = line[1]
while (i < self.wave_max):
if i == num_waves:
line = source.readline()
line = line.split()
num_waves = int(line[0])
wave_type = line[1]
self.enemy_wave_description.append(wave_type)
i += 1
#initialize map from newly loaded self
self.the_map = Field('MAP/' + str(self.level) + '.map')
self.map_surface = self.the_map.get_map().convert()
self.grid = self.the_map.get_grid()
self.towers = self.the_map.towers
self.enemies = dict()
self.meter = WaveMeter(self.wave_max,(self.wave_time/40),(self.first_wave_time/40),self.enemy_wave_description)
#reset all main variables
self.current_level = pygame.image.load('IMG/level_' + str(self.level) + '_100.png').convert_alpha()
self.frame = 0
self.enemy_sent = 0
self.enemy_max = 0
self.enemy_level = 0
else:
self.game_state = 'end'
def Update(self,time):
self.time = time
self.frame+= 1
if self.game_state == 'main':
#update typing time if active
if self.typer.active:
self.typing_timer+= self.time
#adds a resource every second
if (self.frame % 40) == 0:
self.res+= 1
#sends a new enemy (if not at max) every 0.5 second
if (self.frame%20) == 0 and self.enemy_sent < self.enemy_max :
self.enemies[self.enemy_sent] = Enemy(self.enemy_wave_description[self.enemy_level],self.enemy_level, self.the_map.path, self.level)
self.enemy_sent+= 1
#adds another wave of enemies to be sent if time == wave_time
if (self.frame % self.wave_time) == 0 and self.enemy_level < self.wave_max:
self.enemy_max+= 10
self.enemy_level+= 1
self.frame = 0
#all towers within range of enemy fire at first available
all_dead = True
for j in self.enemies:
if self.enemies[j].alive:
all_dead = False
self.enemies[j].move(self.time)
for i in self.towers:
if dist(self.towers[i].center,self.enemies[j].loc) <= self.towers[i].range and self.towers[i].cool <= 0:
self.towers[i].fire(self.enemies[j])
if self.enemies[j].hp <= 0:
self.enemies[j].alive = False
self.res+= self.enemies[j].reward
#if enemy has reached home base, end game
if self.enemies[j].tile.kind == 'home base':
self.game_state = 'end'
#update dams on the map
self.the_map.update_dams(self.time)
#if everything is dead and all waves sent, end level
if all_dead and self.enemy_level == self.wave_max:
self.game_state = 'end_level'
if self.game_state == 'loading':
#stop music
pygame.mixer.stop()
#load next level
self.LoadNextLevel()
#if game is not over play new music
if self.game_state != 'end':
music = pygame.mixer.Sound(self.music_name)
music.play(-1)
self.game_state = 'main'
def ActivateTyper(self,x,y,typer_type):
if typer_type == 'upgrade' and self.res >= 80:
current_tile = self.grid[y][x]
if (current_tile.kind == 'tower' and current_tile.upgrades < 10):
pygame.mouse.set_visible(False)
self.typer = Typer(self.upgrade_d,'upgrade',1,y,x)
self.typing_timer = -1
elif typer_type == 'tower' and self.res >= 150:
current_tile = self.grid[y][x]
if (current_tile.kind == 'grass'):
pygame.mouse.set_visible(False)
self.typer = Typer(self.basic_tower_d,'tower',2,y,x)
self.typing_timer = -1
elif typer_type == 'rapid' and self.res >= 300:
current_tile = self.grid[y][x]
if (current_tile.kind == 'tower' and current_tile.title == 'Basic Tower'):
pygame.mouse.set_visible(False)
self.typer = Typer(self.adv_tower_d,'rapid',3,y,x)
self.typing_timer = -1
elif typer_type == 'snipe' and self.res >= 500:
current_tile = self.grid[y][x]
if (current_tile.kind == 'tower' and current_tile.title == 'Basic Tower'):
pygame.mouse.set_visible(False)
self.typer = Typer(self.adv_tower_d,'snipe',3,y,x)
self.typing_timer = -1
elif typer_type == 'dam' and self.res >= 50:
current_tile = self.grid[y][x]
if (current_tile.kind == 'road'):
pygame.mouse.set_visible(False)
self.typer = Typer(self.upgrade_d,'dam',1,y,x)
self.typing_timer = -1
#execute on completion of a typing challenge
def TypeComplete(self):
if self.typer.type == 'tower':
self.the_map.add_tower(self.typer.y,self.typer.x)
tower = self.grid[self.typer.y][self.typer.x]
tower.skill_modifier(self.typer.wrong,self.typing_timer)
self.res-= 150
elif self.typer.type == 'upgrade':
current_tile = self.grid[self.typer.y][self.typer.x]
current_tile.upgrade(self.typer.wrong,self.typing_timer)
self.res-= 80
elif self.typer.type == 'rapid':
tower = self.grid[self.typer.y][self.typer.x]
tower.rapid_upgrade(self.typer.wrong,self.typing_timer)
self.res-= 300
elif self.typer.type == 'snipe':
tower = self.grid[self.typer.y][self.typer.x]
tower.snipe_upgrade(self.typer.wrong,self.typing_timer)
self.res-= 500
elif self.typer.type == 'dam':
self.the_map.add_dam(self.typer.y,self.typer.x)
self.res-= 50
def KillTyper(self):
self.typer.kill()
class Game(object):
## Game constructor
# @param self The object pointer
## @var numSetsMade
# The total number of sets the user has made so far.
## @var setsListTotal
# A list of Sets the Game object maintains when it scans the field during game initialization.
# This data field is primarily used to test the correctness of the sets from the field.
## @var setsMadeSoFar
# A list that keeps track of the sets the user has made so far.
## @var numSetsTotal
# The absolute total number of sets that are on the field to be found.
## @var cardChoices
# A list that keeps track of the current set choices the users has made.
# Once the user has made 3 card choices (i.e. len(_cardChoices) == 3), the Game Object verifies the Set.
## @var deckManager
# Object which manages the use of the Beginner sized deck and the Normal size deck in gameplay.
## @var timerModeFlag
# Boolean that determines whether the game should be run in timed mode.
## @var gamediff
# Difficulty of the Game itself (a.k.a. the number of cards), Beginner/Novice uses 9 cards on the field, Advanced uses 12.
# Default difficulty is Novice. (0 = Beginner and _beginnerFlag = True, 0 = Novice and _beginnerFlag = False, 2 = Advanced)
## @var timediff
# Determines the difficulty of timed mode.
# Easy by default when timed mode is turned on (0 = Easy, 1 = Medium, 2 = Hard).
# Higher difficulties means less time to find sets. Game is in untimed mode by default
## @var numHints
# Number of hints allotted to the user whenever a new game is started.
## @var field
# An instance of a _Field object that the Game object uses to scan for sets,
# reference field indices for card choices, etc.
def __init__(self):
self.numSetsMade = 0
self.numSetsTotal = 0
self.setsListTotal = []
self.setsMadeSoFar = []
self.cardChoices = []
self.deckManager = DeckManager()
self.timedModeFlag = False
self.gamediff = Difficulty.NOVICE
self.timeddiff = 0
self.numHints = 3 if self.gamediff == Difficulty.ADVANCED else 2
self.field = Field(3,4) if self.gamediff == Difficulty.ADVANCED else Field(3,3)
self.deckManager.placeCardsOnField(self.field)
if self.scanSetsOnField() != 4 + (2 if self.gamediff == Difficulty.ADVANCED else 0):
self.resetGame()
## resets all data for the Game, this method was created because it was
# preferable than having overhead with creating a brand new instance and garbage collection
# If the number of sets found during the scan doesn't satisfy the required number of sets,
# redo the reset.
# @param self The object pointer
def resetGame(self):
while True:
self.numSetsMade = 0
self.numSetsTotal = 0
self.numHints = 3 if self.gamediff == Difficulty.ADVANCED else 2
del self.setsListTotal[:]
del self.setsMadeSoFar[:]
del self.cardChoices[:]
self.deckManager.collectCardsFromField(self.field)
self.field.reset(3,3+(1 if self.gamediff == Difficulty.ADVANCED else 0)) #reset the existing field instance rather than create a new instance (a new instance doesn't work for some reason)
self.deckManager.placeCardsOnField(self.field)
if self.scanSetsOnField() == 4 + (2 if self.gamediff == Difficulty.ADVANCED else 0):
break
##Checks over the field array to check all possible sets
# @param self The object pointer
# @return The number of sets found during the scan.
def scanSetsOnField(self):
rows = len(self.field)
cols = len(self.field[0])
for it in itertools.combinations(xrange(rows*cols), 3):
i,j,k = it[0],it[1],it[2]
c1 = self.field[i//cols][i%cols]
c2 = self.field[j//cols][j%cols]
c3 = self.field[k//cols][k%cols]
if not self.verifySet([c1, c2, c3]):
self.setsListTotal.append([i, j, k])
if len(self.setsListTotal) == 4 + (2 if self.gamediff == Difficulty.ADVANCED else 0):
break
self.numSetsTotal = len(self.setsListTotal)
return self.numSetsTotal
##Given a list of EXACTLY 3 Card Objects, this method checks the attributes of the cards to
# see if the cards form a given set. If so, return 'None', if not return the 2 attributes that violate the SET rule.
# @param self The object pointer
# @param ls The list of Card Objects (of length 3) whose attributes may or may not form a set.
# @return None if the cards in the list form a set.
# @return a 2-length tuple of string attributes that violate the set rule.
def verifySet(self,ls):
assert len(ls) == 3
assert type(ls[0]) == Card
assert type(ls[1]) == Card
assert type(ls[2]) == Card
d1 = ls[0].__dict__
d2 = ls[1].__dict__
d3 = ls[2].__dict__
for attr in Card.attrdict:
i,j,k = d1[attr],d2[attr],d3[attr]
violators = self._verifyHelper([i, j, k])
if violators:
assert len(violators) == 2
return Card.attrdict[attr][violators[0]], Card.attrdict[attr][violators[1]]
#if the cards picked aren't a set then we return from the function.
#We return the string attributes that violate the SET rule.
## A simple helper method for the verifySet function that actually checks the attributes
# @param A 3-length list of set attributes to determine if they violate the set rule of not
# @return A 2-length tuple of string attributes that violated the set rule, or None otherwise.
def _verifyHelper(self,attributes):
assert len(attributes) == 3
if attributes[0] == attributes[1] and attributes[0] != attributes[2]:
return attributes[0], attributes[2]
if attributes[1] == attributes[2] and attributes[1] != attributes[0]:
return attributes[1], attributes[0]
if attributes[0] == attributes[2] and attributes[0] != attributes[1]:
return attributes[0], attributes[1]
## Primary method used for testing the validity of the current card choices.
# It returns one of the following: A tuple of strings indicating the attributes
# that violated the set rule, or an integer indicating other wise.
# @return (1 == Repeated Set, 2 == Successful Set, (str,str) == choices don't form a set)
def validateSet(self):
assert len(self.cardChoices)
choices = [i for i in self.cardChoices]
if choices in self.setsMadeSoFar:
return 1
result = self.verifySet([self.field[i//self.field.cols()][i%self.field.cols()] for i in self.cardChoices])
if not result:
self.setsMadeSoFar.append(choices)
self.numSetsMade+=1
assert self.numSetsMade == len(self.setsMadeSoFar)
return 2
else:
return result
## Primary method for processing _cardChoices. The length of the choice list must be less than 3 upon calling
# this function. If the choices passed in the function already exists in the choice list, it is removed.
# If the choices list hasn't reached 3 yet, returns 0. Otherwise, we call the validateSet() method and return
# the method's return value.
# @param self The object pointer
# @param i the card id on the field to be added to the card choices.
# @return 0 if the choice list hasn't reached length 3 yet
# @return 3 if a choice is to be removed from set.)
# @return a result from self.validateSet()
def addCardChoice(self,i):
assert len(self.cardChoices) < 3
if i in self.cardChoices:
self.cardChoices.remove(i)
return 3
else:
self.cardChoices.append(i)
if len(self.cardChoices) == 3:
try:
self.cardChoices.sort()
return self.validateSet() #returns None if Set is valid, A tuple of card attributes otherwise.
finally:
del self.cardChoices[:]
return 0
##Sets the game difficulty of the current game.
# Returns True if the difficulty change was successful, False if it wasn't.
def changeGameDifficulty(self,difficulty):
if self.gamediff == difficulty:
return False
if self.gamediff != difficulty:
if self.gamediff == Difficulty.BEGINNER or difficulty == Difficulty.BEGINNER:
self.deckManager.collectCardsFromField(self.field)
self.deckManager.switchDecks()
self.gamediff = difficulty
return True
##Helper method which calculates the numbers of sets remaining to find.
# @param self The Object Pointer
# @return The number of sets remaining on the field, or an error code representing a specific error.
def callHint(self):
if not self.numSetsRemaining():
return HintErrorCode.GAMEOVER
if not self.numHints:
return HintErrorCode.OUTOFHINTS
result = set(map(tuple,self.setsListTotal)) - set(map(tuple,self.setsMadeSoFar))
result2 = set(result.pop()) - set(self.cardChoices)
self.numHints-=1
return result2.pop()
#Complex function to choose a card on the field that's in a set that hasn't been made yet.
#A shame that sets aren't indexable...or that you can't have a set of lists...
def numSetsRemaining(self):
return self.numSetsTotal-self.numSetsMade
def __init__(self, width, height, screen=None, soundInstance=None,
boss=None):
# We create the window
self.width = width
self.height = height
if screen == None:
self.screen = pygame.display.set_mode((self.width, self.height))
else:
self.screen = screen
if soundInstance == None:
self.Sound = Sound()
else:
self.Sound = soundInstance
self.background, self.backgroundRect = loadImage("background.jpg")
# We keep the Menu instance if we are running TuxleTriad from Menu.py
if boss != None:
self.boss = boss
self.boss.app = self
self.FONT = self.boss.FONT
else:
self.boss = None
self.FONT = "Dearest.ttf"
# The Clock of the game, to manage the frame rate
self.clock = pygame.time.Clock()
self.fps = 60
# Creation of two players
self.player1 = Player(1)
self.player2 = Player(-1)
self.players = {1 : self.player1, -1 : self.player2}
self.player1Hand = self.player1.hand
self.player2Hand = self.player2.hand
# We create the Score
self.scorePlayer1 = Score("5", 1, self.width, self.height)
self.scorePlayer2 = Score("5", -1, self.width, self.height)
# With this variable, we cannot do anything until the animation
# played is finished.
self.animation = 0
# If we have to play the animation in different directions
self.sensAnimation = 0
self.player = 1
self.position = None
self.CARD = None
self.infoCARD = None
# We create the field of the game, 3x3.
sizeCard = self.player1Hand.cards[0].image.get_size()
self.field = Field(self.width, self.height, sizeCard, self)
self.emptySquare = 9
self.alphaAnimation = 255
# Manage the winner congratulations font
self.winner = Text("", self.FONT, white, 60)
# Manage the display of the name of the card selected
self.cardName = None
# Do we show the name of the card selected?
self.selectedCardName = 1
def parseXml(node):
city = City()
city.name = node.getAttribute("name")
city.field = Field.parseXml(node.firstChild)
return city
class Application():
"""Main class of the game, manage the window"""
def __init__(self, width, height, screen=None, soundInstance=None,
boss=None):
# We create the window
self.width = width
self.height = height
if screen == None:
self.screen = pygame.display.set_mode((self.width, self.height))
else:
self.screen = screen
if soundInstance == None:
self.Sound = Sound()
else:
self.Sound = soundInstance
self.background, self.backgroundRect = loadImage("background.jpg")
# We keep the Menu instance if we are running TuxleTriad from Menu.py
if boss != None:
self.boss = boss
self.boss.app = self
self.FONT = self.boss.FONT
else:
self.boss = None
self.FONT = "Dearest.ttf"
# The Clock of the game, to manage the frame rate
self.clock = pygame.time.Clock()
self.fps = 60
# Creation of two players
self.player1 = Player(1)
self.player2 = Player(-1)
self.players = {1 : self.player1, -1 : self.player2}
self.player1Hand = self.player1.hand
self.player2Hand = self.player2.hand
# We create the Score
self.scorePlayer1 = Score("5", 1, self.width, self.height)
self.scorePlayer2 = Score("5", -1, self.width, self.height)
# With this variable, we cannot do anything until the animation
# played is finished.
self.animation = 0
# If we have to play the animation in different directions
self.sensAnimation = 0
self.player = 1
self.position = None
self.CARD = None
self.infoCARD = None
# We create the field of the game, 3x3.
sizeCard = self.player1Hand.cards[0].image.get_size()
self.field = Field(self.width, self.height, sizeCard, self)
self.emptySquare = 9
self.alphaAnimation = 255
# Manage the winner congratulations font
self.winner = Text("", self.FONT, white, 60)
# Manage the display of the name of the card selected
self.cardName = None
# Do we show the name of the card selected?
self.selectedCardName = 1
def update(self):
"""Updates all the sprites on the window"""
self.screen.blit(self.background, self.background.get_rect())
self.screen.blit(self.field.surface, self.field.rect)
for card in self.player1Hand.cards:
self.screen.blit(card.image, card.rect)
if card == self.CARD:
self.CARD.borderRect.topleft = self.CARD.rect.topleft
self.screen.blit(self.CARD.border, self.CARD.borderRect)
for card in self.player2Hand.cards:
self.screen.blit(card.image, card.rect)
if card == self.CARD:
self.CARD.borderRect.topleft = self.CARD.rect.topleft
self.screen.blit(self.CARD.border, self.CARD.borderRect)
self.scorePlayer1.update()
self.scorePlayer2.update()
self.screen.blit(self.scorePlayer1.surface, self.scorePlayer1.rect)
self.screen.blit(self.scorePlayer2.surface, self.scorePlayer2.rect)
if self.winner.text != "":
self.winner.changeText()
self.screen.blit(self.winner.surface, self.winner.rect)
if self.selectedCardName != 0:
self.showName(1)
self.showName(-1)
if self.cardName != None:
self.screen.blit(self.backCard, self.backCardRect)
self.screen.blit(self.cardName.surface, self.cardName.rect)
self.cardName = None
if self.infoCARD == None:
# If we aren't showing the about popup. Because About need to blit one
# more thing before doing the following commands.
pygame.display.flip()
self.clock.tick(self.fps)
def main(self):
"""Main part handling the game"""
self.cardsOwner()
self.update()
while 1:
if self.animation == 1:
# We continue the animation
self.putCard()
self.update()
else:
# We over the animation and now the next player have to play.
if self.sensAnimation == 1:
self.player = self.player * -1
self.sensAnimation = 0
for event in pygame.event.get():
if event.type == MOUSEBUTTONUP and self.animation == 0:
if event.button == 3 and self.winner.text == "":
if self.getCard(0):
self.showAbout()
if self.winner.text == "" and event.button == 1:
self.infoCARD = None
self.players[self.player].playCard(self)
elif event.type == QUIT:
audio = [self.Sound.soundVolume, self.Sound.musicVolume]
setConfig(audio)
self.field.saveState()
pygame.quit()
sys.exit()
else:
# We get the status of all key on keyboard.
# Then we select the one at place 27: Escape.
# We can do this only if we ran the game
# with Menu.py and not directly from main.py
if pygame.key.get_pressed()[27] and self.boss != None:
self.boss.main()
pygame.display.flip()
self.clock.tick(self.fps)
def putCard(self):
"""Animation of a card put on the field"""
if self.CARD.inHand == 1:
# We check if self..CARD is in the player's Hand
self.Sound.playPutCard()
# We drop the card off the Hand
if self.CARD.inHand == 1:
self.CARD.inHand = 0
# Depending of the direction of the animation, we make the card
# being invisible or visible again.
if self.sensAnimation == 0:
self.alphaAnimation -= 25 + (self.fps / 30.0 * 5)
if self.alphaAnimation < 0:
self.alphaAnimation = 0
self.CARD.image.set_alpha(self.alphaAnimation)
self.CARD.rect.centerx += 2 * self.player
elif self.sensAnimation == 1:
self.alphaAnimation += 25 + (self.fps / 30.0 * 5)
if self.alphaAnimation > 255:
self.alphaAnimation = 255
self.CARD.image.set_alpha(self.alphaAnimation)
# We change the position of the card and the animation's direction
if self.CARD.image.get_alpha() <= 25:
self.CARD.rect = self.Square
self.sensAnimation = 1
if self.CARD.image.get_alpha() == 255 and self.sensAnimation == 1:
# We have put the card on the field and the animation is over.
# We compare the elements to give potential malus/bonus.
# And we have to look if that card captured some of the
# ennemy's.
self.animation = 0
squareElement = self.field.elementName[self.numberSquare]
if squareElement != None:
self.Sound.playElement(squareElement)
if self.CARD.elementName == squareElement \
and squareElement != None:
self.CARD.addModifier(1)
else:
if squareElement != None:
self.CARD.addModifier(-1)
adjacentCards = self.getAdjacent()
capturedCard = adjacent(self.CARD, adjacentCards)
self.changeOwner(capturedCard)
self.emptySquare -= 1
self.CARD = None
if self.emptySquare == 0:
self.winAnimation()
def selectedCard(self):
"""Player has selected a card
But not yet a place on the field"""
for i in [1, 2, 3, 4, 5]:
self.CARD.rect.centerx += 4 * self.player
self.update()
def deselectedCard(self):
"""Finally, the player wants an other card"""
for i in [1, 2, 3, 4, 5]:
self.CARD.rect.centerx -= 4 * self.player
self.CARD = None
self.update()
def squareFilled(self):
"""Say if there is already a card in the square"""
for card in self.player1Hand.cards:
if card.rect == self.Square:
return 1
for card in self.player2Hand.cards:
if card.rect == self.Square:
return 1
return 0
def cardsOwner(self):
"""Which cards is owned by who?"""
cardPlayer = 0
cardPlayer += self.player1Hand.cardsOwner()
self.scorePlayer1.updateScore(cardPlayer)
self.scorePlayer2.updateScore(10 - cardPlayer)
def getAdjacent(self):
"""Get all the adjacent cards of the first one put"""
posx, posy = self.CARD.rect.topleft
adjacentCards = [None, None, None, None]
if self.player == 1:
for card in self.player2Hand.cards:
if card.inHand == 0:
if card.rect.collidepoint((posx, posy - 144)):
# We first look at the card on the top
adjacentCards[0] = card
if card.rect.collidepoint((posx + 113, posy)):
# We look at the card on the right
adjacentCards[1] = card
if card.rect.collidepoint((posx, posy + 144)):
# We look at the card on the bottom
adjacentCards[2] = card
if card.rect.collidepoint((posx - 113, posy)):
# We look at the card on the left
adjacentCards[3] = card
elif self.player == -1:
for card in self.player1Hand.cards:
if card.inHand == 0:
if card.rect.collidepoint((posx, posy - 144)):
# We first look at the card on the top
adjacentCards[0] = card
if card.rect.collidepoint((posx + 113, posy)):
# We look at the card on the right
adjacentCards[1] = card
if card.rect.collidepoint((posx, posy + 144)):
# We look at the card on the bottom
adjacentCards[2] = card
if card.rect.collidepoint((posx - 113, posy)):
# We look at the card on the left
adjacentCards[3] = card
return adjacentCards
def changeOwner(self, cards):
for card in cards:
if card.owner == 1:
self.player1Hand.cards.remove(card)
self.player2Hand.cards.append(card)
if card.owner == -1:
self.player2Hand.cards.remove(card)
self.player1Hand.cards.append(card)
self.capturedAnimation(card)
self.cardsOwner()
def capturedAnimation(self, card):
"""Shows a little animation when capturing card"""
# We want the sound of the card put played before doing anything more
self.update()
while (pygame.mixer.get_busy()):
pass
# self.Sound.capturedCard.play()
width = card.rect.width # we expect 113. If not please change format.
height = card.image.get_rect().height # Here we expect 139.
topleft = list(card.rect.topleft)
step = 30 - (self.fps / 30 * 3)
while(width != 10):
width -= step
if width < 10:
width = 10
topleft[0] += step / 2
getCard(card)
card.image = pygame.transform.scale(card.image, (width, height))
card.rect = card.image.get_rect()
card.rect.topleft = topleft
self.update()
card.owner *= -1
card.changeOwner()
while (width != 113):
width += step
if width > 113:
width = 113
topleft[0] -= step / 2
getCard(card)
card.image = pygame.transform.scale(card.image, (width, height))
card.rect = card.image.get_rect()
card.rect.topleft = topleft
self.update()
# If card has a bonus or malus, we have to re-draw it on the card
if card.modifierValue != 0:
card.image.blit(card.modifierBack.surface, card.modifierBack.rect)
card.image.blit(card.modifier.surface, card.modifier.rect)
def winAnimation(self):
"""Show who won the game"""
if self.scorePlayer1.score > self.scorePlayer2.score:
self.winner.text = _("Blue win!")
self.winner.rect.topleft = self.backgroundRect.midtop
self.winner.rect.x -= 20
self.winner.color = blue
elif self.scorePlayer2.score > self.scorePlayer1.score:
self.winner.text = _("Red win!")
self.winner.rect.topright = self.backgroundRect.midtop
self.winner.rect.x += 20
self.winner.color = red
else:
self.winner.text = _("Equality!")
self.winner.rect.topleft = self.backgroundRect.midtop
self.winner.color = white
self.winner.changeColor()
self.winner.rect.y += 10
def getCard(self, player):
"""Return the card at pygame.mouse.get_pos() coordinates """
coords = pygame.mouse.get_pos()
if player == 1:
card = self.player1Hand.getCard(coords)
if card >= 0:
if self.CARD != None:
self.deselectedCard()
self.CARD = self.player1Hand.cards[card]
elif player == -1:
card = self.player2Hand.getCard(coords)
if card >= 0:
if self.CARD != None:
self.deselectedCard()
self.CARD = self.player2Hand.cards[card]
elif player == 0:
#If we get a right-click, then we want to print the About
#popup even if it is an ennemy's card
card = self.player1Hand.getCard(coords)
if card != None:
self.infoCARD = self.player1Hand.cards[card].About
else:
card = self.player2Hand.getCard(coords)
if card != None:
self.infoCARD = self.player2Hand.cards[card].About
if card != None:
return 1
return 0
def showAbout(self):
"""Show some info on the card if we do a right-click on it"""
width = 0
quit = 0
maxWidth = 450
COLORRED = (200,0,0,125)
COLORBLUE = (0,0,200,125)
event = None
if self.infoCARD.boss.owner == 1:
COLOR = COLORBLUE
elif self.infoCARD.boss.owner == -1:
COLOR = COLORRED
background = pygame.Surface((width, 140), SRCALPHA)
rect = background.get_rect()
background.fill(COLOR)
if self.infoCARD.boss.owner == 1:
rect.topleft = self.infoCARD.boss.rect.topright
elif self.infoCARD.boss.owner == -1:
rect.topright = self.infoCARD.boss.rect.topleft
while 1:
self.update()
self.screen.blit(background,rect)
pygame.display.flip()
self.clock.tick(self.fps)
if width < maxWidth and quit == 0:
width += 40 - (self.fps / 30.0 * 5)
if width > maxWidth:
width = maxWidth
background = pygame.Surface((width, 140), SRCALPHA)
rect = background.get_rect()
background.fill(COLOR)
if self.infoCARD.boss.owner == 1:
rect.topleft = self.infoCARD.boss.rect.topright
elif self.infoCARD.boss.owner == -1:
rect.topright = self.infoCARD.boss.rect.topleft
if quit == 1:
width -= 40 - (self.fps / 30.0 * 5)
if width < 0:
width = 0
background = pygame.Surface((width, 140), SRCALPHA)
rect = background.get_rect()
background.fill(COLOR)
if self.infoCARD.boss.owner == 1:
rect.topleft = self.infoCARD.boss.rect.topright
elif self.infoCARD.boss.owner == -1:
rect.topright = self.infoCARD.boss.rect.topleft
if width == 0:
if quit == 1:
self.update()
return
quit = 1
if width == maxWidth and quit == 0:
background.fill(COLOR)
background.blit(self.infoCARD.surface, self.infoCARD.rect)
self.update()
self.screen.blit(background,rect)
pygame.display.flip()
self.clock.tick(self.fps)
event = pygame.event.wait()
if width == 0:
self.infoCARD = None
self.update()
return 0
if event and event.type == MOUSEBUTTONUP:
quit = 1
elif event and event.type == QUIT:
audio = [self.Sound.soundVolume, self.Sound.musicVolume]
setConfig(audio)
pygame.quit()
sys.exit()
return 0
def showName(self, player):
"""Show the name of the card selected at the bottom of the window"""
self.backCard, self.backCardRect = loadImage("name.png")
if player == 1:
for card in self.player1Hand.cards:
if card == self.CARD:
name = self.CARD.name
self.cardName = Text(name, self.FONT, white, 40)
elif player == -1:
for card in self.player2Hand.cards:
if card == self.CARD:
name = self.CARD.name
self.cardName = Text(name, self.FONT, white, 40)
if self.cardName != None:
self.cardName.rect.midbottom = self.backgroundRect.midbottom
self.cardName.rect.y -= 10
self.backCardRect.center = self.cardName.rect.center
X0_e = numpy.zeros((Ne, 3)) # initial velocity of electrons, [m/s]
X0_i = numpy.zeros((Ni, 3)) # initial velocity of ions, [m/s]
electrons = numpy.empty(Ne, dtype=Particle)
ions = numpy.empty(Ni, dtype=Particle)
for i in range(Ne):
electrons[i] = Particle(X0_e[i, :], V0_e[i, :], -e, me, dt_e)
for i in range(Ni):
ions[i] = Particle(X0_i[i, :], V0_i[i, :], e, mi, dt_i)
field = Field(Nx, Ny, Nz, Lx, Ly, Lz)
field.initE(E)
field.initB(B)
trace_i = numpy.zeros((Ne, 3, 100))
trace_e = numpy.zeros((Ni, 3, 100))
for i in range(100):
field.updateTho(electrons, ions)
field.solveE(eps0)
field.updateParticleProps(electrons)
field.updateParticleProps(ions)
for particle in electrons:
def __init__(self, engine):
self.engine = engine
name = self.engine.dungeon #name of the dungeon
path = os.path.join("places", name) #path to the dungeon
self.dungeonini = Configuration(os.path.join("..", "data", path, "dungeon.ini")).dungeon
#config file
self.formations = [f.strip() for f in self.dungeonini.formations.split(",")]
self.otherevents = [e.strip() for e in self.dungeonini.events.split(",")]
self.field = Field(self, path) #the field data (grid)
#ogg or mp3 support for background music
self.music = BGMObj(os.path.join(path, "bgm.mp3"), fullpath = True)
if not self.music:
self.music = BGMObj(os.path.join(path, "bgm.ogg"), fullpath = True)
w,h = self.engine.w, self.engine.h
#background image
self.background = ImgObj(os.path.join(path, "background.png"))
self.background.setScale(self.engine.w, self.engine.h, inPixels = True)
self.background.setPosition(w/2,h/2)
#displays the current map direction
self.compassbase = ImgObj(os.path.join("scenes", "dungeon", "compassbase.png"))
self.compassbase.setPosition(w*.1, h*.1)
self.compassbase.setScale(256, 256, True)
self.compass = ImgObj(os.path.join("scenes", "dungeon", "compass.png"))
self.compass.setPosition(w*.1, h*.1)
self.compass.setScale(256, 256, True)
#displays coordinates of the player
self.font = FontObj("default.ttf", size = 32)
self.font.setPosition(w*.5,h*.1)
#displays player height
self.bigFont = FontObj("default.ttf", size = 72)
self.bigFont.setPosition(w*.8,h*.9)
self.selectedPos = self.field.playerPos #selected position for movement
self.distance = 0
#camera controls
self.position = [w/2,h/2]
self.panX = w/2
self.panY = h/2
self.cameraMotion = False
self.angle = 135.0
if self.field.playerPos[0] > self.field.dimensions[0]/2:
if self.field.playerPos[1] > self.field.dimensions[1]/2:
self.angle = 225.0
else:
self.angle = 135.0
else:
if self.field.playerPos[1] > self.field.dimensions[1]/2:
self.angle = 45.0
else:
self.angle = 315.0
self.mode = 0 #0 = view, 1 = action menu, 2 = move
self.actionMenu = MenuObj(self, ["Move", "Menu", "Escape"], (w*.8, h*.25), window = "window.png")
self.moveKeys = {} #keys used for tile selection
self.updateKeys()
def __init__(self):
#filename variables
self.music_name = ''
self.map_name = ''
self.level_image = ''
#total enemy waves
self.wave_max = 0
#time before first wave
self.first_wave_time = 0
#time between waves after first
self.wave_time = 0
#starting player self
self.start_res = 0
#letter length for words in typer
self.basic_tower_d = 3
self.adv_tower_d = 3
self.upgrade_d = 3
self.enemy_wave_description = list()
self.level = 0
self.game_state = 'start_menu'
#display frame counter
self.frame = 0
#total number of enemies sent
self.enemy_sent = 0
#total number of enemies that needs to be sent
self.enemy_max = 0
#enemy level
self.enemy_level = 0
#user resource total
self.res = 700
#map for current level
self.the_map = Field('MAP/1.map')
self.map_surface = self.the_map.get_map().convert()
self.grid = self.the_map.get_grid()
self.towers = self.the_map.towers
self.enemies = dict()
#initialize typer
self.typer = Typer(3,None,1,0,0)
self.typer.kill()
self.time = 0
self.typing_timer = 0
self.wave_meter = None
#title screen images
self.title1 = pygame.image.load('IMG/title1.png').convert()
self.title2 = pygame.image.load('IMG/title2.png').convert()
#game over image
self.the_end = pygame.image.load('IMG/end.png').convert()
self.res_img = pygame.image.load('IMG/res_75.png').convert_alpha()
self.level_finish = pygame.image.load('IMG/level_finish.png').convert()
self.loading = pygame.image.load('IMG/loading.png').convert_alpha()
self.help_screen = pygame.image.load('IMG/help.png').convert()
def emplaceField(self, row, column):
field = Field(row, column)
field.setGameWindow(self)
field.clicked.connect(self.revealFieldWrapper)
self.boardLayout.addWidget(field, row, column)
self.fields[row][column] = field