def enemy_attack():
global bullets
global enemyleft
global enemy_shooting_time_interval
turtle.addshape("bulletnew.gif")
for enemy in enemies:
if enemy.isvisible()== True and cheatcontrol==1 :
enemyleft.append(enemy)
if len(enemyleft)>0 and cheatcontrol==1 :
no_of_enemy = random.randint(0,len(enemyleft)-1)
bullet = turtle.Turtle()
bullet.hideturtle()
if newthemegamecontrol == 0:
bullet.shape("circle")
bullet.shapesize(0.5,0.5,1)
bullet.fillcolor("red")
if newthemegamecontrol == 1:
bullet.shape("bulletnew.gif")
bullet.shapesize(0.5,0.5,1)
bullet.up()
bullet.goto(enemyleft[no_of_enemy].xcor(),\
enemyleft[no_of_enemy].ycor())
bullet.right(90)
bullets.append(bullet)
bullet.showturtle()
enemyleft=[]
turtle.ontimer(enemy_attack,enemy_shooting_time_interval)
def main():
#设置一个画面
windows = turtle.Screen()
#设置背景
windows.bgcolor('blue')
#生成一个黄色乌龟
bran = turtle.Turtle()
bran.shape('turtle')
bran.color('yellow')
#开始你的表演
bran.circle(50,360)
bran.turtlesize(1,1,3) #乌龟大小
#bran.home()
bran.setx(300)
bran.sety(100) #设置乌龟为止
bran.seth(90) #设置乌龟开始的角度
bran.begin_poly() #开始记录多边形顶点
bran.fd(100) #forward
bran.left(20)
bran.fd(30)
bran.left(60)
bran.fd(50)
bran.end_poly() #停止记录多边形顶点，并将其与第一个顶点相连
#p=turtle.get_poly()
turtle.addshape('triangle',((5,-3),(0,5),(-5,-3))) #添加形状
sea = turtle.Turtle()
sea.shape('triangle') #改成刚加入的形状
sea.color('red')
sea.setpos(-30,100) #设置起始位置
sea.circle(50,360,200)
def createJigsaw():
global allTurtles
# Initialize the variables of total number of rows and columns
# Now we go through the jigsaw piece row-column structure
# Go through each row
# Go through each column in this row
for row in range(3):
for column in range(3):
# Make a new turtle
x = random.randint(-width / 2, width / 2)
y = random.randint(-height / 2, height / 2)
turtleone = turtle.Turtle()
turtleone.up()
turtleone.goto(x, y)
turtle.down()
# Move it to a random position
# Build the image file name
thisFilename = "image" + "-" + str(row) + "-" + str(
column) + ".gif"
turtle.addshape(thisFilename)
turtleone.shape(thisFilename)
turtleone.ondrag(turtleone.goto)
turtleone.speed(0)
allTurtles.append(turtleone)
def main():
#设置一个画面
windows = turtle.Screen()
#设置背景
windows.bgcolor('blue')
#生成一个黄色乌龟
bran = turtle.Turtle()
bran.shape('turtle')
bran.color('yellow')
#开始你的表演
bran.circle(50, 360)
bran.turtlesize(1, 1, 3) #乌龟大小
#bran.home()
bran.setx(300)
bran.sety(100) #设置乌龟为止
bran.seth(90) #设置乌龟开始的角度
bran.begin_poly() #开始记录多边形顶点
bran.fd(100) #forward
bran.left(20)
bran.fd(30)
bran.left(60)
bran.fd(50)
bran.end_poly() #停止记录多边形顶点，并将其与第一个顶点相连
#p=turtle.get_poly()
turtle.addshape('triangle', ((5, -3), (0, 5), (-5, -3))) #添加形状
sea = turtle.Turtle()
sea.shape('triangle') #改成刚加入的形状
sea.color('red')
sea.setpos(-30, 100) #设置起始位置
sea.circle(50, 360, 200)
def register_shapes():
def rotate(point, angle, origin=(0, 0)):
"""
Rotate a point counterclockwise by a given angle around a given origin.
The angle should be given in radians.
"""
ox, oy = origin
px, py = point
sa, ca = sin(angle), cos(angle)
dx, dy = px - ox, py - oy
qx = ox + ca * dx - sa * dy
qy = oy + sa * dx + ca * dy
return qx, qy
def map_transform(points, angle=pi / 2, dx=0, dy=0, scale=1):
return list(
map(
lambda x: rotate((scale * (x[0] + dx), scale *
(x[1] + dy)), pi / 2), points))
def build_tank(side, objects):
tank = turtle.Shape("compound")
for o in objects:
tank.addcomponent(*o)
turtle.addshape("tank_" + side, tank)
# Bullet
b = turtle.Shape("polygon", ((-5, -5), (-5, 5), (5, 5), (5, -5)))
turtle.addshape("bullet", b)
circle = screen._shapes["circle"]._data
# 3 wheels
components = []
components.append((map_transform(circle, dy=-5), "black"))
components.append((map_transform(circle, dx=20, dy=-5), "yellow"))
components.append((map_transform(circle, dx=-20, dy=-5), "black"))
# Tank body
trapezoid = ((-35, 5), (35, 5), (30, 25), (-30, 25))
components.append((map_transform(trapezoid), "red"))
# Tank turret / gun
rectangle = ((30, 15), (30, 20), (60, 20), (60, 15))
components.append((map_transform(rectangle), "red"))
build_tank("left", components)
components.pop()
components.pop()
components.append((map_transform(trapezoid), "blue"))
rectangle = ((-30, 15), (-30, 20), (-60, 20), (-60, 15))
components.append((map_transform(rectangle), "blue"))
# Uncomment to draw bounding box for debugging
#components.append((map_transform(circle, 0, 0, 0, 3), "yellow"))
build_tank("right", components)
def newthemegamestart():
global newthemegamecontrol
global intro_line
global new_intro_line
newthemegamecontrol = 1
turtle.bgpic("BGPICNEW.gif")
new_gamestarsoundeffect.play()
time.sleep(2)
global player, laser
global enemy_shooting_time_interval
intro_line.clear()
new_intro_line.clear()
start_button.clear()
start_button.hideturtle()
new_theme_start_button.clear()
new_theme_start_button.hideturtle()
left_arrow.hideturtle()
right_arrow.hideturtle()
labels.clear()
enemy_number_text.clear()
if enemy_number>=6:
enemy_max_x = window_width/2 - enemy_size * 6
else:
enemy_max_x = window_width/2 - enemy_size * enemy_number
turtle.addshape("new_spaceship.gif")
player = turtle.Turtle()
player.shape("new_spaceship.gif")
player.up()
player.goto(player_init_x, player_init_y)
turtle.onkeypress(playermoveleft,"Left")
turtle.onkeypress(playermoveright,"Right")
turtle.listen()
for i in range(enemy_number):
enemy = turtle.Turtle()
enemy.shape("new_enemy.gif")
enemy.up()
enemy.goto(enemy_init_x + enemy_size * (i % 6), \
enemy_init_y - enemy_size * (i // 6))
enemies.append(enemy)
laser = turtle.Turtle()
laser.shape("bookfire.gif")
# Change the size of the turtle and change the orientation of the turtle
laser.shapesize(laser_width / 20, laser_height / 20)
laser.left(90)
laser.up()
# Hide the laser turtle
laser.hideturtle()
# Part 4.2 - Mapping the shooting function to key press event
turtle.onkeypress(shoot,"space")
turtle.listen()
turtle.update()
turtle.ontimer(enemy_attack,enemy_shooting_time_interval)
turtle.ontimer(updatescreen,update_interval)
def forme(self, hauteur, largeur): # crée un polygone ayant une certaine largeur et hauteur
forme = ((0, 0), (-hauteur, 0), (-hauteur, -largeur), (0, -largeur),
(0, 0), (-hauteur, 0), (-hauteur, largeur), (0, largeur))
turtle.addshape("forme",forme)
self.color('gray')
self.fillcolor('gray')
self.shape("forme")
self.penup()
def inst():
inn = turtle.clone()
inn.home()
turtle.addshape("in.gif")
inn.shape("in.gif")
inn.stamp()
turtle.update()
def initialize_resolution():
"""This function is used for configure resolution settings"""
turtle.screensize()
turtle.setup(width = 1.0, height = 1.0)
turtle.speed(0)
turtle.Screen()
turtle.title("TURTLE RACE")
turtle.addshape('python.gif')
def drawMTAMap():
mapImage = turtle.Turtle()
image = "MTAMap.gif" # image size
windowAdj = (int(turtle.screensize()[0]/2),int(turtle.screensize()[1]/2))
mapImage.goto(imageSize[0]/2-windowAdj[0],imageSize[1]/2-windowAdj[1])
turtle.addshape(image)
mapImage.shape(image)
def __init__(self):
turtle.Turtle.__init__(self)
self.penup()
turtle.addshape("player.gif")
self.shape("player.gif")
self.speed(0)
self.width = 20
self.height = 20
self.dy = 0
self.dx = 0
self.state = "ready"
self.goto(-200, GROUND_LEVEL + self.height / 2)
def draw(grid, size):
turtle.ht()
turtle.speed(0)
turtle.begin_poly()
for x in range(4):
turtle.fd(size)
turtle.rt(90)
turtle.end_poly()
turtle.addshape('block', turtle.get_poly())
turtle.shape('block')
turtle.pu()
turtle.clear()
file = "Mazes/maze " + str(len(grid[0]) -
2) + 'x' + str(len(grid) -
2) + " Solution" + ".txt"
index = open(file, 'w')
for x in grid:
index.write(''.join(x) + '\n')
print(''.join(x))
index.close()
for n, i in enumerate(grid):
turtle.setpos(-400, -n * size + 385)
for j in i:
if j == '#':
turtle.pd()
turtle.stamp()
turtle.pu()
turtle.fd(size)
elif j == 'S':
turtle.color("Red")
turtle.pd()
turtle.stamp()
turtle.pu()
turtle.color("Black")
turtle.fd(size)
elif j == 'E':
turtle.pd()
turtle.color("Green")
turtle.stamp()
turtle.color("Black")
turtle.pu()
turtle.fd(size)
elif j == 'X':
turtle.pd()
turtle.color("Blue")
turtle.stamp()
turtle.color("Black")
turtle.pu()
turtle.fd(size)
else:
turtle.fd(size)
def draw(grid, size):
turtle.ht()
turtle.speed(0)
turtle.begin_poly()
for x in range(4):
turtle.fd(size)
turtle.rt(90)
turtle.end_poly()
turtle.addshape('block', turtle.get_poly())
turtle.shape('block')
turtle.pu()
turtle.clear()
furthest = []
ends = deadends(grid)
grid[ends[0][1]][ends[0][0]] = 'S'
for x in ends:
furthest.append(x[0] + x[1])
grid[ends[furthest.index(max(furthest))][1]][ends[furthest.index(
max(furthest))][0]] = 'E'
file = "Mazes/maze " + str(len(grid[0]) - 2) + 'x' + str(len(grid) -
2) + ".txt"
index = open(file, 'w')
for x in grid:
index.write(''.join(x) + '\n')
print(''.join(x))
index.close()
for n, i in enumerate(grid):
turtle.setpos(-400, -n * size + 385)
for j in i:
if j == '#':
turtle.pd()
turtle.stamp()
turtle.pu()
turtle.fd(size)
elif j == 'S':
turtle.color("Red")
turtle.pd()
turtle.stamp()
turtle.pu()
turtle.color("Black")
turtle.fd(size)
elif j == 'E':
turtle.pd()
turtle.color("Green")
turtle.stamp()
turtle.color("Black")
turtle.pu()
turtle.fd(size)
else:
turtle.fd(size)
def choice_character():
IMG = turtle.Turtle()
turtle.addshape("./img7.gif")
IMG.shape("./img7.gif")
IMG.up()
IMG.goto(-370, 0)
IMG2 = turtle.Turtle()
turtle.addshape("./img32.gif")
IMG2.shape("./img32.gif")
IMG2.up()
IMG2.goto(370, 0)
def __init__(self, initSpeed, startx, starty):
'''initialize a turtle for the invader given a speed to move the invader at'''
turtle.Turtle.__init__(self)
os.chdir(os.getcwd() + '/img')
turtle.addshape('invader.gif')
turtle.addshape('explosion.gif')
os.chdir('..')
self.invaderspeed = initSpeed
self.invaderstate = 'live'
self.shape('invader.gif')
self.penup()
self.speed(0)
self.setposition(startx, starty)
def __init__(self, initSpeed):
'''initialize a turtle for the player given a speed to move the player at'''
turtle.Turtle.__init__(self)
os.chdir(os.getcwd() + '/img')
turtle.addshape('player.gif')
os.chdir('..')
self.playerspeed = initSpeed
self.color('white')
self.shape('player.gif')
self.penup()
self.speed(0)
self.setposition(0, -185) #bottom middle of screen
self.setheading(90) #rotate 90 degrees CCW
def add_object(Object, x, y, gif):
# the speed that turtle module draws the shape on screen whenever it moves to let us see it
Object.speed(0) #to let the shape updated in the maximum speed
#no drawing when the turtle object is moving
Object.penup()
#position of the Object
Object.goto(x, y)
#turtle model has these shapes ['arrow', 'blank', 'circle', 'classic', 'square', 'triangle', 'turtle']
#but we can add a shape as gif image using the addshape method
turtle.addshape(name=gif, shape=None)
#we use the shape method to get the shape on the window and we use our shape instead of the ready shapes like shape("square")
Object.shape(gif)
# to be appeared and visible on the screen at the same time
Object.showturtle()
def ajouterDemiCercle():
# Initialisation.
points = ()
for i in range(0,11):
# Calcul des coordonnées du point.
x = 10 * math.cos(math.pi/10 * i)
y = 10 * math.sin(math.pi/10 * i)
# Ajout du point au tuple.
points = points + ((x,y),)
# Ajouter le demi-cercle.
turtle.addshape("semicircle", points)
def gameover(message):
# Part 5.3 - Improving the gameover() function
gameover_turtle = turtle.Turtle()
gameover_turtle.hideturtle()
turtle.addshape("yoda.gif")
gameover_turtle.shape("yoda.gif")
gameover_turtle.pencolor("yellow")
gameover_turtle.up()
#gameover_turtle.goto(-50,-100)
#gameover_turtle.down()
gameover_turtle.write(message, align="center", font=("System", 30, "bold"))
gameover_turtle.showturtle()
turtle.update()
def startGame():
global robot_turtle, drawing_turtle
global current_task_handler
# Set up the turtle window
turtle.setup(500, 500)
turtle.title("COMP1021 Robot Game")
# Set up the coordinate system of the window to be the same as the map
turtle.setworldcoordinates(-1, game_map_total_rows + 0.5, game_map_total_cols + 0.5, -1)
# Add the robot images as turtle shapes
turtle.addshape("robot_up.gif")
turtle.addshape("robot_down.gif")
turtle.addshape("robot_left.gif")
turtle.addshape("robot_right.gif")
# Create a robot turtle
robot_turtle = turtle.Turtle()
robot_turtle.up()
robot_turtle.shape("robot_up.gif")
# Create a turtle for drawing the game graphics such as the map
drawing_turtle = turtle.Turtle()
drawing_turtle.up()
drawing_turtle.hideturtle()
# Set up the key event for the 'r' key
turtle.onkeypress(toggleRobotView,'r')
turtle.listen()
# Update the game map
drawGameMap()
# Select corresponding task handler
if currentTask == "task0":
current_task_handler = task_handlers["task0"]
elif currentTask == "task1":
current_task_handler = task_handlers["task1"]
elif currentTask == "task2":
current_task_handler = task_handlers["task2"]
elif currentTask == "task3":
current_task_handler = task_handlers["task3"]
elif currentTask == "task4":
current_task_handler = task_handlers["task4"]
else:
current_task_handler = task_handlers["task5"]
# Start the game loop
turtle.ontimer(gameLoop, timing)
turtle.done()
def gamestart(x, y):
start_button.clear()
start_button.hideturtle()
Labels.clear()
enemy_number_text.clear()
Left_arrow.hideturtle()
Right_arrow.hideturtle()
text.clear()
showtime.write("Shoot Interval:", font=("System", 10, "bold"))
time.write(interval, font=("System", 10, "bold"))
global player, laser
turtle.addshape("spaceship.gif")
player = turtle.Turtle()
player.shape("spaceship.gif")
player.up()
player.goto(player_init_x, player_init_y)
turtle.onkeypress(playermoveleft, "Left")
turtle.onkeypress(playermoveright, "Right")
turtle.listen()
turtle.addshape("enemy.gif")
turtle.addshape("enemy2.gif")
for i in range(enemy_number):
enemy = turtle.Turtle()
enemy.shape("enemy.gif")
enemy.up()
enemy.goto(enemy_init_x + enemy_size * (i % 6),
enemy_init_y - enemy_size * (i // 6))
enemies.append(enemy)
laser = turtle.Turtle()
turtle.addshape("laser.gif")
laser.shape("laser.gif")
laser.left(90)
laser.up()
laser.hideturtle()
turtle.onkeypress(shoot, "space")
turtle.listen()
turtle.update()
turtle.ontimer(updatescreen, update_interval)
turtle.ontimer(shoot_bullet, interval)
turtle.onkeypress(decreasetime, ",")
turtle.onkeypress(increasetime, ".")
turtle.listen()
turtle.onkeypress(cheat_mode, "s")
turtle.listen()
def prepareMissile(self):
temporary = turtle.Turtle()
temporary.color(self.color)
screen = turtle.getscreen()
delay = screen.delay()
screen.delay(0)
temporary.hideturtle()
temporary.penup()
missile = turtle.Shape("compound")
body = ((0, 2), (-4, 0), (-4, -12), (-8, -16), (-8, -20), (8, -20), (8, -16), (4, -12), (4, 0))
missile.addcomponent(body, self.color, 'black')
fire = ((-2, -20), (0, -32), (2, -20))
missile.addcomponent(fire, 'red', 'red')
name = 'missile_{0}'.format(self.color)
turtle.addshape(name, shape=missile)
del temporary
screen.delay(delay)
def createJigsaw():
global allTurtles
# Initialize the variables of total number of rows and columns
totalRows = 4
totalColumns = 4
# Now we go through the jigsaw piece row-column structure
# Go through each row
for row in range(totalRows):
# Go through each column in this row
for column in range(totalColumns):
# Generate a random position
width = turtle.window_width()
height = turtle.window_height()
x = random.randint(-width / 2, width / 2)
y = random.randint(-height / 2, height / 2)
print(x, y)
# Make a new turtle
newTurtle = turtle.Turtle()
newTurtle.up()
#speed is fastest so that you can get fast response when dragging the image
newTurtle.speed(0)
# Move it to the random position
newTurtle.goto(x, y)
# Build the image file name
theFilename = str(row) + "-" + str(column) + ".gif"
print(theFilename)
# Add the image to the turtle system
turtle.addshape(
"C:\\Users\\Owner\\Desktop\\documents hkust\\sem 2 2020 spring\\COMP 1021\\cut_images_TRiwhzo2T2\\"
+ theFilename)
# Apply the new image to this turtle
newTurtle.shape(
"C:\\Users\\Owner\\Desktop\\documents hkust\\sem 2 2020 spring\\COMP 1021\\cut_images_TRiwhzo2T2\\"
+ theFilename)
# when drag, go to the place that it is dragged
newTurtle.ondrag(newTurtle.goto)
# Add the new turtle to the new list of turtles
allTurtles.append(newTurtle)
def win(): #If you win
win = int(random.uniform(
1, 4)) #picks random number and choose a you win image
if win == 1:
tigerblood = r"win1.gif"
elif win == 2:
tigerblood = r"win2.gif"
elif win == 3:
tigerblood = r"win3.gif"
turtle.addshape(tigerblood)
turtle.shape(tigerblood)
w = turtle.Turtle()
w.penup()
w.hideturtle()
w.goto(-120, -300)
w.pendown()
w.write("Congratulations!!!", font=(20))
def visualize_init():
global male_turtle, female_turtle, text_turtle
turtle.setup(800, 200)
turtle.screensize(780, 180) # Canvas size < window size to avoid scrollbars
turtle.title("Gender Display")
turtle.addshape("icon_male.gif")
turtle.addshape("icon_female.gif")
turtle.tracer(False)
male_turtle = turtle.Turtle()
female_turtle = turtle.Turtle()
male_turtle.shape("icon_male.gif")
female_turtle.shape("icon_female.gif")
male_turtle.up()
female_turtle.up()
text_turtle = turtle.Turtle()
text_turtle.up()
text_turtle.hideturtle()
def lose(): #If you lose
lost = int(random.uniform(
1, 4)) #picks random number and choose a you lose image
if lost == 1:
lost = r"lost1.gif" #assigns image to variable
elif lost == 2:
lost = r"lost2.gif"
elif lost == 3:
lost = r"lost3.gif"
turtle.addshape(lost) #Adds image to turtle environment
turtle.shape(lost) #displays it
l = turtle.Turtle()
l.penup()
l.hideturtle()
l.goto(-120, -300)
l.pendown()
l.write("Sorry, you lose!", font=(20))
def wombotCursor():
temporary = turtle.Turtle()
screen = turtle.getscreen()
delay = screen.delay()
screen.delay(0)
temporary.hideturtle()
temporary.penup()
wombot = turtle.Shape("compound")
#legs
leg1 = polyDodec(temporary, ORIGIN, ORIGIN, LENGTH_LONG)
wombot.addcomponent(leg1, BROWN, "black")
leg2 = polyDodec(temporary, ORIGIN, FOOT, LENGTH_LONG)
wombot.addcomponent(leg2, BROWN, "black")
leg3 = polyDodec(temporary, FOOT, ORIGIN, LENGTH_LONG)
wombot.addcomponent(leg3, BROWN, "black")
leg4 = polyDodec(temporary, FOOT, FOOT, LENGTH_LONG)
wombot.addcomponent(leg4, BROWN, "black")
#body
body = polyTwoHalfDodec(temporary, BODY_X, BODY_Y, LENGTH_BODY)
wombot.addcomponent(body, BROWN, "black")
#eyes
eye1 = polyDodec(temporary, EYE_X, EYE_Y1, LENGTH_MED)
wombot.addcomponent(eye1, "white", "black")
pupil1 = polyDodec(temporary, PUP_X, PUP_Y1, LENGTH_SHORT)
wombot.addcomponent(pupil1, "black", "black")
eye2 = polyDodec(temporary, EYE_X, EYE_Y2, LENGTH_MED)
wombot.addcomponent(eye2, "white", "black")
pupil2 = polyDodec(temporary, PUP_X, PUP_Y2, LENGTH_SHORT)
wombot.addcomponent(pupil2, "black", "black")
eyelid1 = polyHalfDodec(temporary, LID_X, LID_Y1, LENGTH_MED1)
wombot.addcomponent(eyelid1, BROWN, "black")
eyelid2 = polyHalfDodec(temporary, LID_X, LID_Y2, LENGTH_MED1)
wombot.addcomponent(eyelid2, BROWN, "black")
#nose
nose = polyRoundishTri(temporary, NOSE_X, NOSE_Y, LENGTH_TRI)
wombot.addcomponent(nose, "black", "black")
turtle.addshape("wombot", shape=wombot)
del temporary
def ending_surprise(user):
turtle.addshape("./img33.gif")
turtle.addshape("./img34.gif")
ending_turtle = turtle.Turtle()
ending_writer = turtle.Turtle()
ending_writer.up()
ending_writer.hideturtle()
ending_writer.goto(0, -370)
if (user == 1):
ending_turtle.shape("./img34.gif")
ending_writer.write("波贏", align="center", font=("Arial", 50, "normal"))
elif (user == -1):
ending_turtle.shape("./img33.gif")
ending_writer.write("郭懂贏",
align="center",
font=("Arial", 50, "normal"))
def ending_clear(x, y):
ending_turtle.hideturtle()
ending_turtle.onclick(ending_clear)
def process(x, y):
if (-290 <= x <= -110):
img = IMG[0]
img.goto(-370, 0)
IMG[1].hideturtle()
IMG[2].hideturtle()
elif (-90 <= x <= 90):
img = IMG[1]
img.goto(-370, 0)
IMG[0].hideturtle()
IMG[2].hideturtle()
elif (110 <= x <= 290):
img = IMG[2]
img.goto(-370, 0)
IMG[0].hideturtle()
IMG[1].hideturtle()
jef = turtle.Turtle()
jef.up()
turtle.addshape("./img0.gif")
jef.shape("./img0.gif")
jef.goto(350, 0)
return
def prepareMissile(self):
temporary = turtle.Turtle()
temporary.color(self.color)
screen = turtle.getscreen()
delay = screen.delay()
screen.delay(0)
temporary.hideturtle()
temporary.penup()
missile = turtle.Shape("compound")
body = self.polyRectangle(temporary, 0, 0, 20, 8)
missile.addcomponent(body, self.color, 'black')
left_eleron = ((-4, -20), (0, -20), (0, -12), (-4, -16))
missile.addcomponent(left_eleron, self.color, 'black')
right_eleron = ((12, -20), (8, -20), (8, -12), (12, -16))
missile.addcomponent(right_eleron, self.color, 'black')
nouse = ((0, 0), (4, 4), (8, 0))
missile.addcomponent(nouse, self.color, 'black')
fire = ((2, -20), (4, -32), (6, -20))
missile.addcomponent(fire, 'red', 'red')
turtle.addshape("missile", shape=missile)
del temporary
screen.delay(delay)
def choice_character():
def process(x, y):
if (-290 <= x <= -110):
img = IMG[0]
img.goto(-370, 0)
IMG[1].hideturtle()
IMG[2].hideturtle()
elif (-90 <= x <= 90):
img = IMG[1]
img.goto(-370, 0)
IMG[0].hideturtle()
IMG[2].hideturtle()
elif (110 <= x <= 290):
img = IMG[2]
img.goto(-370, 0)
IMG[0].hideturtle()
IMG[1].hideturtle()
jef = turtle.Turtle()
jef.up()
turtle.addshape("./img0.gif")
jef.shape("./img0.gif")
jef.goto(350, 0)
return
IMG = [0] * 3
randList = [2, 3, 4, 5, 6, 7, 8, 9, 10]
rand_index = random.sample(randList, 3)
for i in range(3):
IMG[i] = turtle.Turtle()
turtle.addshape("./img" + str(rand_index[i]) + ".gif")
IMG[i].shape("./img" + str(rand_index[i]) + ".gif")
IMG[i].up()
IMG[i].goto(200 * (i - 1), 0)
IMG[i].onclick(process)
def __init__(self, my_turtle=None, shape=None, pos=(0, 0)):
'''
Initialize Button object. The button will be given an onclick
listener that triggers the implementation of the abstract method, fun.
:param my_turtle: turtle object which, when clicked, will trigger
the action specified in the fun method.
Default value=None - with this input, a new
turtle is created.
:param shape: shape for the turtle object. Default=None, in which
case, the shape is the result of
turtle.shape('square'); turtle.shapesize(2,10)
:param pos: tuple input, (x,y), specifying the location of the
turtle object.
'''
print('test')
if my_turtle is None:
#If no turtle given, create new one
self.turtle = turtle.clone()
else:
self.turtle = my_turtle
self.turtle.speed(0)
self.turtle.hideturtle()
self.turtle.penup()
self.turtle.goto(pos)
if shape is None:
self.turtle.shape('square')
self.turtle.shapesize(2, 10)
else:
turtle.addshape(shape)
self.turtle.shape(shape)
self.turtle.showturtle()
self.turtle.onclick(self.fun) #Link listener to button function
turtle.listen() #Start listener
def start(self):
self.bateau1 = MyTurtles()
self.bateau1.penup()
self.bateau1.speed(SPEED)
self.bateau1.setx(300)
self.bateau1.sety(200)
bateauun = ((0, 0),
((0 - 5), (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
(0, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
((DEFAULT_MARGIN * 2) - DEFAULT_MARGIN / 2, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
(((DEFAULT_MARGIN * 2) - DEFAULT_MARGIN / 2) + 5, (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
((DEFAULT_MARGIN * 2) - DEFAULT_MARGIN / 2, 0))
turtle.addshape('bateauun', bateauun)
self.bateau1.shape('bateauun')
self.bateau1.penup()
self.bateau1.fillcolor('white')
self.bateau1.createBateau(2, self.bateau1.getcoords(self.bateau1.xcor(), self.bateau1.ycor()), "Torpilleur")
self.listeBateauJoueur1.append(self.bateau1.bateau)
self.bateau1.ondrag(self.bateau1.move)
self.bateau1.onrelease(self.bateau1.changeOrientation, 3)
self.bateau2 = MyTurtles()
self.bateau2.penup()
self.bateau2.speed(SPEED)
self.bateau2.setx(250)
self.bateau2.sety(200)
bateaudeux = ((0, 0),
((0 - 5), (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
(0, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
((DEFAULT_MARGIN * 3) - DEFAULT_MARGIN / 2, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
(((DEFAULT_MARGIN * 3) - DEFAULT_MARGIN / 2) + 5, (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
((DEFAULT_MARGIN * 3) - DEFAULT_MARGIN / 2, 0))
turtle.addshape('bateaudeux', bateaudeux)
self.bateau2.shape('bateaudeux')
self.bateau2.fillcolor('red')
self.bateau2.penup()
self.bateau2.createBateau(3, self.bateau2.getcoords(self.bateau2.xcor(), self.bateau2.ycor()), "Sous-Marin")
self.listeBateauJoueur1.append(self.bateau2.bateau)
self.bateau2.ondrag(self.bateau2.move)
self.bateau2.onrelease(self.bateau2.changeOrientation, 3)
self.bateau3 = MyTurtles()
self.bateau3.penup()
self.bateau3.speed(SPEED)
self.bateau3.setx(350)
self.bateau3.sety(200)
bateautrois = ((0, 0),
((0 - 5), (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
(0, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
((DEFAULT_MARGIN * 3) - DEFAULT_MARGIN / 2, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
(((DEFAULT_MARGIN * 3) - DEFAULT_MARGIN / 2) + 5, (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
((DEFAULT_MARGIN * 3) - DEFAULT_MARGIN / 2, 0))
turtle.addshape('bateautrois', bateautrois)
self.bateau3.shape('bateautrois')
self.bateau3.fillcolor('yellow')
self.bateau3.penup()
self.bateau3.createBateau(3, self.bateau3.getcoords(self.bateau3.xcor(), self.bateau3.ycor()), "Contre-Torpilleur")
self.listeBateauJoueur1.append(self.bateau3.bateau)
self.bateau3.ondrag(self.bateau3.move)
self.bateau3.onrelease(self.bateau3.changeOrientation, 3)
self.bateau4 = MyTurtles()
self.bateau4.penup()
self.bateau4.speed(SPEED)
self.bateau4.setx(250)
self.bateau4.sety(0)
bateauquatre = ((0, 0),
((0 - 5), (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
(0, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
((DEFAULT_MARGIN * 4) - DEFAULT_MARGIN / 2, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
(((DEFAULT_MARGIN * 4) - DEFAULT_MARGIN / 2) + 5, (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
((DEFAULT_MARGIN * 4) - DEFAULT_MARGIN / 2, 0))
turtle.addshape('bateauquatre', bateauquatre)
self.bateau4.shape('bateauquatre')
self.bateau4.fillcolor('black')
self.bateau4.penup()
self.bateau4.createBateau(4, self.bateau4.getcoords(self.bateau4.xcor(), self.bateau4.ycor()), "Croiseur")
self.listeBateauJoueur1.append(self.bateau4.bateau)
self.bateau4.ondrag(self.bateau4.move)
self.bateau4.onrelease(self.bateau4.changeOrientation, 3)
self.bateau5 = MyTurtles()
self.bateau5.penup()
self.bateau5.speed(SPEED)
self.bateau5.setx(300)
self.bateau5.sety(0)
bateaucinq = ((0, 0),
((0 - 5), (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
(0, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
((DEFAULT_MARGIN * 5) - DEFAULT_MARGIN / 2, DEFAULT_MARGIN - DEFAULT_MARGIN / 4),
(((DEFAULT_MARGIN * 5) - DEFAULT_MARGIN / 2) + 5, (DEFAULT_MARGIN - DEFAULT_MARGIN / 4) / 2),
((DEFAULT_MARGIN * 5) - DEFAULT_MARGIN / 2, 0))
turtle.addshape('bateaucinq', bateaucinq)
self.bateau5.shape('bateaucinq')
self.bateau5.fillcolor('gray')
self.bateau5.penup()
self.bateau5.createBateau(5, self.bateau5.getcoords(self.bateau5.xcor(), self.bateau5.ycor()), "Porte-Avion")
self.listeBateauJoueur1.append(self.bateau5.bateau)
self.bateau5.ondrag(self.bateau5.move)
self.bateau5.onrelease(self.bateau5.changeOrientation, 3)
#Setting up the window and background
window = turtle.Screen()
window.bgpic("backgroundA.gif")
os.system("afplay music.mp3&")
#The music continues even when you exit the game
#window.bgcolor("lightblue")
turtle.setup(1000,1000)
window.tracer(4)
score = 0
window.title("Sweet Albert: Help him get candy! By Reena Sarkar and Amanda Chen")
#Naming all of our turtles (characters and candies)
mom = turtle.Turtle()
mom.ht()
mom.penup()
turtle.addshape("pal.gif")
mom.shape("pal.gif")
dad = turtle.Turtle()
dad.ht()
dad.penup()
turtle.addshape("dad.gif")
dad.shape("dad.gif")
sis = turtle.Turtle()
sis.ht()
sis.penup()
turtle.addshape("sis.gif")
sis.shape("sis.gif")
bro = turtle.Turtle()
def gamestart(x, y):
start_button.clear()
start_button.hideturtle()
labels.clear()
enemy_number_text.clear()
left_arrow.hideturtle()
right_arrow.hideturtle()
difficulty_text.clear()
left_arrow_2.hideturtle()
right_arrow_2.hideturtle()
turtle.bgpic("ust2.gif")
# Use the global variables here because we will change them inside this
# function
global player, laser, score, score_label, score_display
# Score display initialization
score_label.up()
score_label.goto(-260, 275)
score_label.color("Red")
score_label.write("Score:", font=("System", 12, "bold"), align = "center")
# Value display
score_display.up()
score_display.goto(-220, 275)
score_display.color("Red")
score_display.write(str(score), font=("System", 12, "bold"), align = "center")
### Player turtle ###
# Add the spaceship picture
turtle.addshape("redbird.gif")
# Create the player turtle and move it to the initial position
player = turtle.Turtle()
player.shape("redbird.gif")
player.up()
player.goto(player_init_x, player_init_y)
# Map player movement handlers to key press events
turtle.onkeypress(playermoveleft, "Left")
turtle.onkeypress(playermoveright, "Right")
turtle.listen()
### Enemy turtles ###
# Add the enemy picture
turtle.addshape("closedbook.gif")
turtle.addshape("openbook.gif")
for i in range(enemy_number):
# Create the turtle for the enemy
enemy = turtle.Turtle()
enemy.shape("closedbook.gif")
enemy.up()
# Move to a proper position counting from the top left corner
enemy.goto(enemy_init_x + enemy_size * (i % 6), enemy_init_y - enemy_size * (i // 6))
# Add the enemy to the end of the enemies list
enemies.append(enemy)
turtle.onkeypress(stopkeypressed, 's')
### Laser turtle ###
turtle.addshape("pen.gif")
# Create the laser turtle
laser = turtle.Turtle()
laser.up()
laser.shape("pen.gif")
# Hide the laser turtle
laser.hideturtle()
turtle.onkeypress(shoot, "space")
turtle.update()
# Start the game by running updatescreen()
turtle.ontimer(updatescreen, update_interval)
tracer(0)
screen = Screen()
canvas = getcanvas() # the canvas is the area that the turtle is moving (the white background)
SCREEN_WIDTH = canvas.winfo_width() / 2 # here we get canvas(screen) width
SCREEN_HEIGHT = canvas.winfo_height() / 2 # here we get the canvas(screen) height
brick_width = 4
brick_height = 2
doritos = "Images/doritos.gif"
mountain_dew = "Images/mountain_dew.gif"
platform_image = "Images/mountain_dew_platform.gif"
turtle.addshape(doritos)
turtle.addshape(mountain_dew)
turtle.addshape(platform_image)
ht()
setup(width, height)
class Brick(Turtle):
def __init__(self, x, y, width, height, shape, hp=1, is_platform=False):
Turtle.__init__(self)
self.is_platform = is_platform
self.hp = hp
self.shape(shape)
self.showturtle()