def show_robot(self, robot):
turtle.color("green")
turtle.shape('turtle')
turtle.setposition([robot.x + self.width / 2, robot.y + self.height / 2])
turtle.setheading(robot.theta / pi * 180.0)
turtle.stamp()
turtle.update()
def show_particles(self, particles):
self.update_cnt += 1
if UPDATE_EVERY > 0 and self.update_cnt % UPDATE_EVERY != 1:
return
turtle.clearstamps()
turtle.shape('tri')
# Particle weights are shown using color variation
show_color_weights = 1 #len(weights) == len(particles)
draw_cnt = 0
px = {}
for i, p in enumerate(particles):
draw_cnt += 1
if DRAW_EVERY == 0 or draw_cnt % DRAW_EVERY == 1:
# Keep track of which positions already have something
# drawn to speed up display rendering
scaled_x = int(p.x * self.one_px)
scaled_y = int(p.y * self.one_px)
scaled_xy = scaled_x * 10000 + scaled_y
if not scaled_xy in px:
px[scaled_xy] = 1
turtle.setposition([p.x + self.width / 2, p.y + self.height / 2])
turtle.setheading(p.theta / pi * 180.0)
if(show_color_weights):
weight = p.w
else:
weight = 0.0
turtle.color(self.weight_to_color(weight))
turtle.stamp()
def show_robot(self, robot):
turtle.color("green")
turtle.shape('turtle')
turtle.setposition(*robot.xy)
turtle.setheading(robot.h)
turtle.stamp()
turtle.update()
def printwin(turtle):
turtle.stamp()
turtle.hideturtle()
turtle.penup()
turtle.goto(0,0)
turtle.color("green")
turtle.write("You Win!",font=("Arial",30), align = "center")
def show_sharks(self, sharks):
self.update_cnt += 1
if UPDATE_EVERY > 0 and self.update_cnt % UPDATE_EVERY != 1:
return
turtle.clearstamps()
draw_cnt = 0
px = {}
for shark in sharks:
draw_cnt += 1
shark_shape = 'classic' if shark.tracked else 'classic'
if DRAW_EVERY == 0 or draw_cnt % DRAW_EVERY == 0:
# Keep track of which positions already have something
# drawn to speed up display rendering
scaled_x = int(shark.x * self.one_px)
scaled_y = int(shark.y * self.one_px)
scaled_xy = scaled_x * 10000 + scaled_y
turtle.color(shark.color)
turtle.shape(shark_shape)
turtle.resizemode("user")
turtle.shapesize(1.5,1.5,1)
if not scaled_xy in px:
px[scaled_xy] = 1
turtle.setposition(*shark.xy)
turtle.setheading(math.degrees(shark.h))
turtle.stamp()
def show_shark(self, shark):
turtle.color(shark.color)
turtle.shape('turtle')
turtle.setposition(*shark.xy)
turtle.setheading(math.degrees(shark.h))
turtle.stamp()
turtle.update()
def show_robot(self, robot):
turtle.color("blue")
turtle.shape('square')
turtle.setposition(*robot.xy)
turtle.setheading(math.degrees(robot.h))
turtle.stamp()
turtle.update()
def show_goal_posts(self, goal_posts):
for p in goal_posts:
turtle.color("#FFFF00")
turtle.setposition(p[0], p[1])
turtle.shape("circle")
turtle.stamp()
turtle.update()
def show_particles(self, particles):
self.update_cnt += 1
if UPDATE_EVERY > 0 and self.update_cnt % UPDATE_EVERY != 1:
return
# turtle.clearstamps()
turtle.shape('tri')
draw_cnt = 0
px = {}
for p in particles:
draw_cnt += 1
if DRAW_EVERY == 0 or draw_cnt % DRAW_EVERY == 1:
# Keep track of which positions already have something
# drawn to speed up display rendering
scaled_x1 = int(p.x1 * self.one_px)
scaled_y1 = int(p.y1 * self.one_px)
scaled_xy1 = scaled_x1 * 10000 + scaled_y1
if not scaled_xy1 in px:
px[scaled_xy1] = 1
turtle.setposition(*p.xy1)
turtle.setheading(math.degrees(p.h))
turtle.color("Red")
turtle.stamp()
turtle.setposition(*p.xy2)
turtle.setheading(math.degrees(p.h))
turtle.color("Blue")
turtle.stamp()
def show_particles(self, particles):
turtle.shape('dot')
for p in particles:
turtle.setposition(*p.xy)
turtle.setheading(p.h)
turtle.color(self.weight_to_color(p.w))
turtle.stamp()
def show_particles(self, particles):
turtle.clearstamps()
for p in particles:
turtle.setposition(*p.xy)
turtle.setheading(p.h)
turtle.color(self.weight_to_color(p.w))
turtle.stamp()
turtle.update()
def show_mean(self, x, y, confident=False):
if confident:
turtle.color("#00AA00")
else:
turtle.color("#cccccc")
turtle.setposition(x, y)
turtle.shape("circle")
turtle.stamp()
def serpinski(length, depth):
if depth > 1:
t.dot()
if depth == 0:
t.stamp()
else:
serpinski_draw(length, depth)
serpinski_draw(length, depth)
serpinski_draw(length, depth)
def draw_circle(x, y, r):
turtle.penup()
turtle.goto(x, y)
turtle.pendown()
turtle.stamp()
turtle.penup()
turtle.goto(x + r, y)
turtle.setheading(90)
turtle.pendown()
turtle.circle(r)
turtle.penup()
def screenMC(x, y):
global r, g, b
turtle.penup()
turtle.goto(x, y)
tsize = random.randrange(1, 10)
turtle.shapesize(tsize)
r = random.random()
g = random.random()
b = random.random()
turtle.color(r, g, b)
turtle.stamp()
def mlc(x, y): ##함수 'mlc'를 정의한다.##
global r, g, b ##아래에서 기본r,g,b값을 지정하기위해 r,g,b를 전역변수로 선언한다.##
size = random.randrange(1, 12) ##거북이의 크기가 1에서 12까지 랜덤으로 변하게한다.##
turtle.shapesize(size) ####
turtle.penup() ##거북이 이동경로에 선이 생기지 않도록한다.##
turtle.goto(x, y) ##거북이가 마우스왼쪽클릭으로 지정한 곳으로 이동하게 한다##
turtle.stamp() ##그 위치에 거북이모양 도장을 찍는다##
turtle.color((r, g, b)) ##거북이의 색을 랜덤으로 변하게 한다.##
r = random.random()
g = random.random()
b = random.random()
def show_attraction_point(self, att):
turtle.color('black')
turtle.shape('circle')
turtle.fillcolor("")
turtle.resizemode("user")
turtle.shapesize(1.5, 1.5, 1)
turtle.setposition(att)
turtle.setheading(0)
turtle.stamp()
turtle.update()
def draw(self):
turtle.setheading(90)
if not self.burning:
turtle.color("green")
else:
turtle.color("red")
turtle.shape("circle")
turtle.penup()
turtle.goto(self.xpos, self.ypos)
turtle.pendown()
turtle.stamp()
def turtlestamp(x, y):
global r, g, b
r = ra.random() #색상 랜덤으로
g = ra.random()
b = ra.random()
t.color(r, g, b) #거북이 색상 변경
t.shapesize(ra.randrange(1, 5)) #터틀사이즈 랜덤으로 변경
t.penup()
t.goto(x, y)
t.lt(ra.randrange(360)) #거북이 각도를 왼쪽으로 얼만큼 바꿀 것인지
t.stamp() #거북이 좌표에 찍
def disp_num(k):
global old_key
t.shape(s7seg_base)
t.stamp()
if k != old_key:
if k < 10:
for i in range(7):
if s7seg_num[k][i] == 1:
t.shape(s7seg_led[i])
t.stamp()
old_key = k
def plot_position(self, x, y, theta):
converted_angle = 180 - theta
turtle.fillcolor('gray')
turtle.setpos(x, y)
# if self.step_count == self.steps_for_stamp:
# turtle.stamp()
# self.step_count = 0
# else:
# self.step_count += 1
turtle.stamp()
turtle.setheading(converted_angle)
def manecilla():
for i in range(12):
turtle.penup()
turtle.forward(65)
turtle.pendown()
turtle.forward(10)
turtle.penup()
turtle.forward(25)
turtle.stamp()
turtle.backward(100)
turtle.left(360 / 12)
def deadeyes():
t.register_shape('dead', ((-5, -5), (-0.01, 0), (-5, 5), (0, 0.01),
(5, 5), (0.01, 0), (5, -5), (0, -0.01)))
t.penup()
t.setpos((165, 255))
t.dot(15, 'white')
t.shape('dead')
stamp1 = t.stamp()
t.setpos((185, 255))
t.dot(15, 'white')
stamp2 = t.stamp()
def start(x, y, linhas, colunas, tamanho):
x_start = r.randrange(x, x + tamanho * colunas, tamanho)
y_start = r.randrange(y - tamanho * linhas, y, tamanho)
t.pu()
t.goto(x_start, y_start)
t.pd()
t.shape('circle')
t.shapesize(0.4)
t.stamp()
t.shape('classic')
t.shapesize(1)
def spider(legs, length):
degree_ = 360 / legs
n = 0
while n<legs:
turtle.seth(degree_)
turtle.forward(length)
turtle.stamp()
turtle.backward(length)
degree_ = degree_ + 360/legs
print(degree_)
n += 1
def displayBanner(banner, position):
"""
Show banner
:param banner: banner
:param position: location in list
:return: None
"""
the_turtle = turtle.getturtle()
turtle.setposition(position[0], position[1])
turtle.shape(banner)
turtle.stamp() # Show banner
def drawBoard(self):
##############################################
turtle.shape('square')
turtle.shapesize(SQUARE_SIZE * 3 / CURSOR_SIZE)
turtle.color('black')
turtle.stamp()
turtle.hideturtle()
##############################################
for j in range(3):
for i in range(3):
# CREATES SHAPE AND STORES IN PLACEHOLDER
turtle.shape('square')
box = turtle.shape('square')
# CREATES SHAPE SIZE AND STORES IN PLACEHOLDER
turtle.shapesize(SQUARE_SIZE / CURSOR_SIZE)
boxsize = turtle.shapesize()
# CREATES SHAPE COLOR
turtle.color('white')
turtle.penup()
# CREATES SHAPE POS AND STORES IN PLACEHOLDER
turtle.goto(i * (SQUARE_SIZE + 2) - (SQUARE_SIZE + 2),
j * (SQUARE_SIZE + 2) - (SQUARE_SIZE + 2))
boxpos = turtle.pos()
mypos = []
pen.goto(boxpos[0] - 50, boxpos[1] + 50)
##############################################
for line in range(0, 4):
pen.forward(SQUARE_SIZE)
pen.right(90)
mypos.append(pen.pos())
turtle.showturtle()
turtle.stamp()
##############################################
a = mypos[0]
b = mypos[1]
c = mypos[2]
d = mypos[3]
self.board[j][i] = [a, b, c, d]
##############################################
BOXES['BOX01'] = self.minmax(self.board[0][0])
BOXES['BOX02'] = self.minmax(self.board[0][1])
BOXES['BOX03'] = self.minmax(self.board[0][2])
##############################################
BOXES['BOX11'] = self.minmax(self.board[1][0])
BOXES['BOX12'] = self.minmax(self.board[1][1])
BOXES['BOX13'] = self.minmax(self.board[1][2])
##############################################
BOXES['BOX21'] = self.minmax(self.board[2][0])
BOXES['BOX22'] = self.minmax(self.board[2][1])
BOXES['BOX23'] = self.minmax(self.board[2][2])
##############################################
turtle.onscreenclick(mouse)
def spider(n):
'''
Нарисуйте паука с n лапами. Пример n = 12:
'''
turtle.shape('turtle')
for i in range(n):
turtle.forward(50)
turtle.stamp()
turtle.right(180)
turtle.forward(50)
turtle.right(180)
turtle.right(360 / n)
def draw_spider(n, paw_length):
""" Данная функция рисует "паука"
n - количество лап
paw_length - длинна лапы
"""
turtle.shape('turtle')
for i in range(n):
turtle.forward(paw_length)
turtle.stamp()
turtle.right(180)
turtle.forward(paw_length)
turtle.right(180 - (360 / n))
def move():
global x, y, Vsnake, t, cherry
t = t + 1
turtle.forward(Vsnake)
turtle.stamp()
if cherry > 0:
cherry = cherry - 1
else:
turtle.clearstamps(1)
turtle.ontimer(move, 100)
def show_particles(self, particles, show_frequency=10):
turtle.shape('tri')
for i, particle in enumerate(particles):
if i % show_frequency == 0:
turtle.setposition((particle.x, particle.y))
turtle.setheading(90 - particle.heading)
turtle.color(self.weight_to_color(particle.weight))
turtle.stamp()
turtle.update()
def DrawPileStorePosition(turtle, x,y,pile_color):
coordinates = []
for i in range(random.randrange(MIN_STONES,MAX_STONES+1)):
turtle.color(pile_color)
turtle.up()
turtle.goto(x,y)
turtle.stamp()
coordinates = coordinates + [[x,y]]
x = x + 100
return coordinates
def singlemove(col,row,color):
'''put one move in graph'''
turtle.hideturtle()
turtle.penup()
turtle.setworldcoordinates(-100,800,800,-100)
turtle.shape("circle")
turtle.shapesize(4)
turtle.color(color)
turtle.setpos(row*100,col*100)
turtle.stamp()
turtle.home()
def show_particles(self, particles, show_frequency = 10):
turtle.shape('tri') # 前面定義過的箭頭圖形
# show_frequency = 每10個才顯示一個(可調整)
for i, particle in enumerate(particles):
if i % show_frequency == 0:
turtle.setposition((particle.x, particle.y))
turtle.setheading(90 - particle.heading) # 將畫筆的方向設置為90 - particle.heading。
turtle.color(self.weight_to_color(particle.weight)) # 根據particle weight來決定顏色
turtle.stamp() # 將烏龜形狀的副本標記在畫布上。
turtle.update() # 更新畫布
def draw_vertex(self, domain_name, domain ):
if len(domain) == 1:
shape_name = self.colors[ domain[0] ]
else:
shape_name = "uncolored"
if shape_name != self.previous_color[domain_name]:
self.previous_color[domain_name] = shape_name
position = tuple(map(lambda x: x+0.4, self.positions[domain_name]))
turtle.shape( shape_name )
turtle.setposition( position )
turtle.stamp()
def screenLeftClick(x, y):
global r, g, b
tAngle = random.randrange(0, 360)
turtle.left(tAngle)
tSize = random.randrange(1, 10)
turtle.shapesize(tSize)
turtle.color((r, g, b))
turtle.stamp()
r = random.random()
g = random.random()
b = random.random()
def moe_6_spaider(count=None, angel=30):
if count:
angel = 360 // count
i = 0
while i < 360:
turtle.right(angel)
turtle.forward(100)
turtle.stamp()
turtle.right(180)
turtle.forward(100)
turtle.left(180)
i += angel
def binToTurtle(binary, num):
curX = swidth / 2 # 거북이 초기 위치를 윈도창 오른쪽 끝으로 설정
for i in range(len(binary) - 2): # 5를 입력시 0b101이므로 앞 0b를 제외한 101 글자 수에 해당하는 3번을 반족
turtle.goto(curX, curY) # 거북이랑 계산된 좌표로 이동
if num & 1: # 2진수로 변환했을 때 맨 하위 비트가 1인지 체크
turtle.color('red')
turtle.turtlesize(2)
else:
turtle.color('blue')
turtle.turtlesize(1)
turtle.stamp() # 위에서 설정된 크기와 색상으로 거북이 도장을 현재 위치에 찍는다.
curX -= 50 # X좌표를 왼쪽으로 50만큼 이동시킨다.
num >>= 1 # 숫자를 오른쪽을 1 시프트시킨다. 오른쪽 비트는 이미 앞에서 표현했으므로 제거
def star(size):
if size <= 10:
return
else:
for i in range(5):
turtle.begin_fill()
turtle.fd(size)
star(size / 3)
turtle.left(216)
turtle.end_fill()
turtle.stamp()
turtle.ht()
def turtle_spider(N, coefficient = False):
"""where N is number of spider's paws"""
if coefficient == False:
coefficient = 360/N
if N == 0:
return
turtle_spider(N-1, coefficient)
turtle.shape("turtle")
turtle.right(coefficient)
turtle.forward(90)
turtle.stamp()
turtle.goto(0,0)
def circularSpiral(turtle, center, heading, color):
#draws a circular spiral with a stamped symbol at its center
turtle.penup()
turtle.goto(center)
turtle.pendown()
turtle.setheading(heading)
turtle.color(color)
for k in range(8):
#draws the stamped symbol by stamping the turtle in 8 different rotated positions
turtle.stamp()
turtle.right(45)
for k in range(130):
turtle.circle(k, 10 * 3.14)
def orbit(turtle, x, y, z, t, d):
if z == 0:
turtle.stamp()
else:
if t == 0:
turtle.up()
turtle.goto(x * math.cos(math.radians(1 / z)) + d,
y * math.sin(math.radians(1 / z)))
turtle.down()
turtle.showturtle()
else:
turtle.goto(x * math.cos(math.radians(t / z)) + d,
y * math.sin(math.radians(t / z)))
def binary_draw(num, curX, curY):
binary = bin(num)
for i in range(len(binary) - 2):
turtle.goto(curX, curY)
if num & 1:
turtle.color('red')
turtle.turtlesize(2)
else:
turtle.color('blue')
turtle.turtlesize(1)
curX -= 50
num >>= 1
turtle.stamp()
def display_number(turtle, number):
for digit in str(number):
bits = DIGITS[digit]
for bit in range(7):
if 2**bit & bits:
position = turtle.position()
segments[bit](turtle)
turtle.stamp()
turtle.setheading(0)
turtle.setposition(position)
turtle.forward(SPACING)
def oct_draw(num, curX, curY):
'''
8진수를 size에 따라 거북이 그리기
'''
octnum = oct(num)
for j in range(len(octnum) - 1, 1, -1):
print(j)
turtle.goto(curX, curY)
turtle.color('red')
turtle.turtlesize(int(octnum[j]))
curX -= 100
turtle.stamp()
turtle.done()
def move():
global x, y, Vsnake, t, cherry
t = t + 1
turtle.forward(Vsnake)
turtle.stamp();
if cherry > 0:
cherry = cherry - 1
else:
turtle.clearstamps(1)
turtle.ontimer(move, 100)
def circularSpiral(turtle, center, heading, color):
#draws a circular spiral with a stamped symbol at its center
turtle.penup()
turtle.goto(center)
turtle.pendown()
turtle.setheading(heading)
turtle.color(color)
for k in range(8):
#draws the stamped symbol by stamping the turtle in 8 different rotated positions
turtle.stamp()
turtle.right(45)
for k in range(130):
turtle.circle(k, 10 * 3.14)
def disp(A, cellsize = 1 / 10.5):
turtle.clear()
turtle.shape("square")
turtle.penup()
turtle.speed(0)
turtle.shapesize(0.5, 0.5, 1)
turtle.ht()
top = len(A) / cellsize
left = -len(A[0]) / cellsize
for r in range(len(A)):
for c in range(len(A[r])):
if A[r][c]:
turtle.goto(c * 10.5 + left, top - r * 10.5)
turtle.stamp()
def show_mean(self, mean):
# TODO: Delete below assumption about confident
confident = True
m1, m2 = mean
x = 0
y = 0
if confident:
turtle.color("#00AA00")
turtle.fillcolor("")
else:
turtle.color("#cccccc")
turtle.fillcolor("")
turtle.setposition(x, y)
turtle.shape("circle")
turtle.stamp()
def show_particles(self, particles):
self.update_cnt += 1
if UPDATE_EVERY > 0 and self.update_cnt % UPDATE_EVERY != 1:
return
turtle.clearstamps()
turtle.shape('tri')
draw_cnt = 0
for p in particles:
draw_cnt += 1
if DRAW_EVERY == 0 or draw_cnt % DRAW_EVERY == 1:
turtle.setposition(*p.xy)
turtle.setheading(p.h)
turtle.color(self.weight_to_color(p.w))
turtle.stamp()
def langton_move(turtle, pos, maps, step):
if pos not in maps or maps[pos] == "white":
turtle.fillcolor("black")
turtle.stamp()
update_maps(maps, turtle, "black")
turtle.right(90)
turtle.forward(step)
pos = turtle_pos(turtle)
elif maps[pos] == "black":
turtle.fillcolor("white")
update_maps(maps, turtle, "white")
turtle.stamp()
turtle.left(90)
turtle.forward(step)
pos = turtle_pos(turtle)
return pos
def stamp_block():
"""
Places a block in the center of the canvas.
"""
## HINT
global STAMP_ID
STAMP_ID = t.stamp()
def main():
# turtle.forward(120)
distance = 60
step = 60
amount = 4
turtle.up()
turtle.backward(200)
turtle.down()
turtle.pensize(2)
turtle.color('blue')
turtle.stamp()
for j in range(amount):
for i in range(5):
turtle.forward(distance)
turtle.right(144)
distance += step
turtle.exitonclick()
def sierpinski(length,depth):
if depth>1:turtle.dot()
if depth==0:
turtle.stamp()
else:
turtle.forward(length)
sierpinski(length/2,depth-1)
turtle.backward(length)
turtle.left(120)
turtle.forward(length)
sierpinski(length/2,depth-1)
turtle.backward(length)
turtle.left(120)
turtle.forward(length)
sierpinski(length/2,depth-1)
turtle.backward(length)
turtle.left(120)
def showParticles(self, _loc):
turtle.tracer(50000, delay=0)
turtle.register_shape("dot", ((-3, -3), (-3, 3), (3, 3), (3, -3)))
turtle.register_shape("tri", ((-3, -2), (0, 3), (3, -2), (0, 0)))
turtle.speed(0)
turtle.setworldcoordinates(0,(self.maze.resolution+1)*3,(self.maze.resolution+1)*3,0)
turtle.up()
turtle.clearstamps()
lines = turtle.Turtle()
lines.color("black")
lines.pensize(5)
for i in range(len(self.maze.layout)):
for j in range(len(self.maze.layout[0])):
if self.maze.layout[i][j][2]=='X':
lines.penup()
lines.goto(j*(self.maze.resolution)-1,(i+1)*self.maze.resolution-1)
lines.pendown()
lines.forward(self.maze.resolution)
lines.penup()
if self.maze.layout[i][j][1] == 'X':
lines.penup()
lines.goto(j * (self.maze.resolution) - 1, i * self.maze.resolution)
lines.pendown()
lines.forward(self.maze.resolution)
lines.penup()
turtle.shape('tri')
for p in self.particles:
#print(p.x, p.y)
turtle.setposition(p.x,p.y)
heading = ((p.orientation +math.pi/2) / (2 * math.pi)) * 360
turtle.setheading(heading)
turtle.color("red")
turtle.stamp()
#turtle.update()
turtle.shape('dot')
turtle.color("blue")
turtle.setposition(self.bestParticle.x, self.bestParticle.y)
turtle.stamp()
turtle.shape('turtle')
turtle.color("green")
turtle.setposition(_loc[0], _loc[1])
headingr = ((_loc[2] +math.pi/2) / (2 * math.pi)) * 360
turtle.setheading(headingr)
#heading = (self.particles[self.prWithHeighestW].orientation / (2 * math.pi)) * 360
#turtle.setheading(heading)
turtle.update()
def move():
turtle.pensize(1)
turtle.color("black")
turtle.pu()
turtle.speed(3)
turtle.setheading(h[0])
turtle.shape("square")
turtle.stamp()
turtle.fd(20)
x = turtle.xcor()
y = turtle.ycor()
if b[0] > a[0]:
turtle.clearstamps(1)
pos.insert(0,[round(x),round(y)])
pos.pop(-1)
else:
pos.insert(0,[round(x),round(y)])
b[0] += 1
def draw(self): ''' Draws the object at its current (x, y) coordinates. ''' turtle.goto(self.x, self.y) turtle.seth(self.heading()) turtle.shape(self.shape) turtle.color(self.color) return turtle.stamp()
def big_rectangle(x, y):
"""
Creates an x by y rectangle of stamps.
"""
global STAMP_IDs
for i in range(x):
for j in range(y):
t.setpos(i * 20, j * 20)
STAMP_IDs.append(t.stamp())
def flashing_block():
global STAMP_ID
global BLOCK_POS
t.clearstamp(STAMP_ID)
nx,ny = BLOCK_POS
t.setpos(nx,ny)
STAMP_ID = t.stamp()
t.ontimer(flashing_block,100)
def moveTurtle(turtle, direction):
turtle.stamp()
if turtle.heading() != direction:
turtle.setheading(direction)
global remainingY
global remainingX
global forwardX
global backwardX
if direction == NORTH:
newY = remainingY - 1
remainingY = newY
elif direction == EAST:
newX = remainingX - 1
remainingX = newX
newForX = forwardX + 1
forwardX = newForX
if backwardX > 0:
newBackX = backwardX - 1
backwardX = newBackX
elif direction == WEST:
newX = remainingX + 1
remainingX = newX
newBackX = backwardX + 1
backwardX = newBackX
newForX = forwardX - 1
forwardX = newForX
else:
newY = remainingY + 1
remainingY = newY
turtle.forward(MOVING_DISTANCE)