def offset(point):
# para contar el puntaje de los puntitos que come el pacman
"Return offset of point in tiles."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def offset(point):
"Return offset of point in tiles."
#utiliza un floor para poder tener un minimo!
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def offset(point):
""" Return the offset of the point based on the tiles on the game board.
"""
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def tap(x, y):
x = floor(x, 50)
y = floor(y, 50)
if bombs[x, y]:
end()
return
pairs = [(x, y)]
while pairs:
x, y = pairs.pop()
stamp(x, y, counts[x, y])
display[x, y] = True
if counts[x, y] != 0:
break
for i in (-50, 0, 50):
for j in (-50, 0, 50):
if i == j == 0:
continue
pair = x + i, y + j
if display[pair]:
continue
if counts[pair] == 0:
pairs.append(pair)
def tap(x, y):
global a
"Respond to screen click at `x` and `y` coordinates."
x = floor(x, 50)
y = floor(y, 50)
a = a - 1
print("move:" + str(a))
if a == 0:
print("gameover")
sys.exit()
if bombs[x, y]:
end()
return
pairs = [(x, y)]
while pairs:
x, y = pairs.pop()
stamp(x, y, counts[x, y])
shown[x, y] = True
if counts[x, y] == 0:
for i in (-50, 0, 50):
for j in (-50, 0, 50):
pair = x + i, y + j
if not shown[pair]:
pairs.append(pair)
def offset(
point
): #Regresa la posición del tablero dadas las coordenadas del vector
"Return offset of point in tiles."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def chao_da_celula(self, x, y):
""" Dadas coordenadas do Turtle (x,y), retorna as coordenadas do início de uma célula.
Por exemplo, na celula da origem com tamanho 20, a coordenada Turtle (10,10)
representa o meio da célula. A chamada de função 'chao_da_celula(10, 10)' retorna
as coordenadas de início dessa célula (0,0)
Dica: para entender, veja o exemplo da função: 'uso_do_floor()''
"""
chao_x = int(floor(x, self._tam_celula))
chao_y = int(floor(y, self._tam_celula))
return chao_x, chao_y
def offset(point):
"Return offset of point in tiles."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def tap(x, y):
x = floor(x, 100)
y = floor(y, 100)
mark = vector(x, y)
for neighbor in neighbors:
spot = mark + neighbor
if spot in tiles and tiles[spot] is None:
number = tiles[mark]
tiles[spot] = number
square(spot, number)
tiles[mark] = None
square(mark, None)
def tap(x, y):
"Swap tile and empty square."
x = floor(x, 100)
y = floor(y, 100)
mark = vector(x, y)
for neighbor in neighbors:
spot = mark + neighbor
if spot in tiles and tiles[spot] is None:
number = tiles[mark]
tiles[spot] = number
square(spot, number) # second times call
tiles[mark] = None
square(mark, None) # for emptying balti
def tap(x,y):
x = floor(x, 200)
y = floor(y, 200)
tile = vector(x, y)
index = len(guesses)
if tile != pattern[index]:
print("Wrong")
correct=False
guesses.append(tile)
flash(tile)
if len(guesses) == len(pattern):
grow()
def tap(x, y):
"Swap tile and empty square."
x = floor(x, 100)
y = floor(y, 100)
sign = vector(x, y)
for neighbor in neighbors:
spot = sign + neighbor
if spot in tile and tile[spot] is None:
number = tile[sign]
tile[spot] = number
square(spot, number)
tile[sign] = None
square(sign, None)
def tap(x, y): # 사용자의 입력을 받았을 때의 동작을 설정하는 함수
"Swap tile and empty square." # 빈 정사각형과 타일을 바꾼다.
x = floor(x, 100)
y = floor(y, 100)
mark = vector(x, y)
for neighbor in neighbors: # 인접 타일 swap을 위한 for문
spot = mark + neighbor
if spot in tiles and tiles[spot] is None: # 인접타일이 빈 정사각형일 때 swap
number = tiles[mark]
tiles[spot] = number
square(spot, number)
tiles[mark] = None
square(mark, None)
def tap(x, y):
#Troque a telha e o quadrado vazio
print x
print y
x = floor(x, 100)
y = floor(y, 100)
mark = vector(x, y)
print mark
for neighbor in neighbors:
spot = mark + neighbor
if spot in tiles and tiles[spot] is None:
number = tiles[mark]
tiles[spot] = number
square(spot, number)
tiles[mark] = None
square(mark, None)
def tap(x, y):
onscreenclick(None)
x = floor(x, 200)
y = floor(y, 200)
tile = vector(x, y)
index = len(guesses)
if tile != pattern[index]:
exit()
guesses.append(tile)
flash(tile)
if len(guesses) == len(pattern):
grow()
onscreenclick(tap)
def tap(x, y):
"Respond to screen tap."
onscreenclick(None)
x = floor(x, 200) #reconising the x coordinate of typed position
y = floor(y, 200) #reconising the y coordinate of typed position
tile = vector(x, y) #storing the coordinates to tile vector
index = len(guesses) #storing the length of the guesses list
if tile != pattern[index]: #If the your guessed tile not matching the pattern then exit the game
exit()
guesses.append(tile) #storing your guess to the list
flash(tile) #after tapping the respective tile will flash
if len(guesses) == len(pattern): #calling grow function if both the list length will same
grow()
onscreenclick(tap)
def tap(x, y):
"Respond to screen tap."
onscreenclick(None)
x = floor(x, 200)
y = floor(y, 200)
tile = vector(x, y)
index = len(guesses)
if tile != pattern[index]:
exit()
guesses.append(tile)
flash(tile)
if len(guesses) == len(pattern):
grow()
onscreenclick(tap)
def tap(x, y):
"Respond to screen tap."
#print("X: "+str(x)+" Y: "+str(y))
onscreenclick(None)
x = floor(x, 200)
y = floor(y, 200)
tile = vector(x, y)
index = len(guesses)
if tile != pattern[index]:
print("Wrong")
#exit()
guesses.append(tile)
flash(tile)
if len(guesses) == len(pattern):
grow()
print("I am in tap")
onscreenclick(tap)
def tap(self, x, y):
"Respond to screen tap."
onscreenclick(None)
x = floor(x, 200)
y = floor(y, 200)
tile = vector(x, y)
index = len(self.guesses)
if tile != self.pattern[index]:
root = Tk()
w = 500 # width for the Tk root
h = 500 # height for the Tk root
# get screen width and height
ws = root.winfo_screenwidth() # width of the screen
hs = root.winfo_screenheight() # height of the screen
# calculate x and y coordinates for the Tk root window
x = (ws / 2) - (w / 2)
y = (hs / 2) - (h / 2)
# set the dimensions of the screen
# and where it is placed
root.geometry('%dx%d+%d+%d' % (w, h, x, y))
root.title("Simon Says Test")
global leng
if leng < 4:
Label(root, text="ID").place(x=250, y=250)
else:
Label(root, text="Not ID").place(x=250, y=250)
Button(root, text="Next", command=exit).place(x=250, y=400)
self.guesses.append(tile)
self.flash(tile)
if len(self.guesses) == len(self.pattern):
self.grow()
onscreenclick(self.tap)
def tap(x, y):
"Respond to screen click at `x` and `y` coordinates."
x = floor(x, 50)
y = floor(y, 50)
if bombs[x, y]:
end()
return
pairs = [(x, y)]
while pairs:
x, y = pairs.pop()
stamp(x, y, counts[x, y])
shown[x, y] = True
if counts[x, y] == 0:
for i in (-50, 0, 50):
for j in (-50, 0, 50):
pair = x + i, y + j
if not shown[pair]:
pairs.append(pair)
def tap(x: int, y: int):
"Respond to screen click at `x` and `y` coordinates."
x = floor(x, 50)
y = floor(y, 50)
if bombs[x, y]:
end()
return
pairs = [(x, y)]
while pairs:
x, y = pairs.pop()
stamp(x, y, counts[x, y])
shown[x, y] = True
if counts[x, y] == 0:
for i in (-50, 0, 50):
for j in (-50, 0, 50):
pair = x + i, y + j
if not shown[pair]:
pairs.append(pair)
def tap(x, y):
"Swapping tile and empty square."
x = floor(x, 100)
y = floor(y, 100)
mark = vector(x, y) #storing the passed values into marks
for neighbor in neighbors:
spot = mark + neighbor #finding the empty spot from neighours list.
if spot in tiles and tiles[
spot] is None: #if the neighour of tile you pressed is empty then only we go for swapping
number = tiles[
mark] #storing the tile mark number to the number variable
tiles[
spot] = number #then we assign the number into the spot tile(empty tile)
square(
spot, number
) #calling square function for making square in spot position and fill the number
tiles[
mark] = None #we assign the none into the mark tile(tile in which we tapped)
square(
mark, None
) #calling square function for making square in mark position and fill the number none
def offset(point):
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def delocamento(pontos):
x = (floor(pontos.x, 20) + 200) / 20
y = (180 - floor(pontos.y, 20)) / 20
index = int(x + y * 20)
return index
def offset(point):
"Devuelve el desplazamiento del punto en mosaicos."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def tap(x, y):
"Swap tile and empty square."
global current_digit_number
temp = [0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
x = int(floor(x, 50))
y = int(floor(y, 50))
mark = vector(x, y)
#print("tap", x, y)
if (y >= 250 and y < 300 and x >= -250 and x < 250):
# fill color to white
update_number()
current_digit_number = number[mark]
current_digit_vector = mark
square(mark, number[mark], 'black', 'yellow')
number_change[(x, y)] = 1
#print("current digit number", current_digit_number)
elif (y >= -250 and y < 200 and x >= -250 and x < 200):
if checkIfUnchangedPos(mark):
return
initTilesChange()
#print("tiles_change", tiles_change)
tiles[mark] = current_digit_number
#square(mark, tiles[mark], 'black', 'pink')
#tiles_change[(x,y)] = [1,'black', 'pink']
copyList((x, y), [1, 'black', 'pink'])
#print("tiles_change tap", tiles_change)
i, j = vec2rowcol(mark)
row = 'row' + str(j)
col = 'col' + str(i)
squ = 'square' + str(int(j / 3)) + str(int(i / 3))
for vec in block[row]:
if (tiles[vec] == current_digit_number) and (tiles[vec]
is not None):
#square(vec, tiles[vec], 'red', 'pink')
#tiles_change[(vec.x,vec.y)] = [1, 'red', 'pink']
copyList((vec.x, vec.y), [1, 'red', 'pink'])
else:
#square(vec, tiles[vec], 'black', 'pink')
#"tiles_change[(vec.x,vec.y)] = [1, 'black', 'pink']
copyList((vec.x, vec.y), [1, 'black', 'pink'])
if tiles[vec] is not None:
temp[tiles[vec]] = 1
#print("tiles_change row", tiles_change)
for vec in block[col]:
if (tiles[vec] == current_digit_number) and (tiles[vec]
is not None):
#square(vec, tiles[vec], 'red', 'pink')
#tiles_change[(vec.x,vec.y)] = [1,'red', 'pink']
copyList((vec.x, vec.y), [1, 'red', 'pink'])
else:
#square(vec, tiles[vec], 'black', 'pink')
#tiles_change[(vec.x,vec.y)] = [1,'black', 'pink']
copyList((vec.x, vec.y), [1, 'black', 'pink'])
if tiles[vec] is not None:
temp[tiles[vec]] = 1
for vec in block[squ]:
if (tiles[vec] == current_digit_number) and (tiles[vec]
is not None):
#tiles_change[(vec.x,vec.y)] = [1, 'red', 'pink']
copyList((vec.x, vec.y), [1, 'red', 'pink'])
else:
#tiles_change[(vec.x,vec.y)] = [1, 'black', 'pink']
copyList((vec.x, vec.y), [1, 'black', 'pink'])
if tiles[vec] is not None:
temp[tiles[vec]] = 1
update_tiles()
for vec in number:
if (number[vec] is not None) and temp[number[vec]] != 0:
square(vec, number[vec], 'black', 'grey')
number_change[(vec.x, vec.y)] = 1
else:
initTilesChange()
update_tiles()
def square(x, y):
"Draw square using path at (x, y)."
path.up()
path.goto(x, y)
path.down()
path.begin_fill()
for count in range(4):
path.forward(20)
path.left(90)
path.end_fill()
def offset(point):
"Return offset of point in tiles."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def valid(point):
"Return True if point is valid in tiles." #Define walls and borders
index = offset(point)
if tiles[index] == 0:
return False
index = offset(point + 19)
if tiles[index] == 0:
return False
def offset(point):
"""Return tile index, from the grid cordinates"""
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def determine_board_pos(self, point): # static method for check_move
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
board_pos = int(x + y * 20)
return board_pos
def get_offset(self, position):
x = (floor(position.x, 20) + 200) / 20
y = (180 - floor(position.y, 20)) / 20
offset = int(x + y * 20)
return offset
def offset(point): #Función para posicionar los puntos, pacman y fantasmas, ajustando sus coordenadas para que queden dentro del path
"Return offset of point in tiles."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index
def yemOlustur(konum):
"Return offset of point in tiles."
x = (floor(konum.x, 20) + 200) / 20
y = (180 - floor(konum.y, 20)) / 20
index = int(x + y * 20)
return index
def offset(point):
"Return offset of point in tiles."
x = (floor(point.x, 20) + 200) / 20
y = (180 - floor(point.y, 20)) / 20
index = int(x + y * 20)
return index