#!/bin/python3
import terrain
from landerClass import landerClass
from turtle import Screen
from math import sin, cos, radians
lander = landerClass()
Screen().onkey(lander.left, "Left")
Screen().onkey(lander.right, "Right")
Screen().onkey(lander.toggleThrust, "Space")
Screen().listen()
while True:
lander.yVel += lander.ACCELERATION
lander.sety(lander.ycor() - lander.yVel)
lander.setx(lander.xcor() + lander.xVel)
if lander.thrusters:
heading = radians(lander.heading())
lander.yVel -= lander.THRUST * sin(heading)
lander.xVel += lander.THRUST * cos(heading)
if terrain.onPad(lander.xcor()) and lander.yVel < 2:
lander.landed()
else:
lander.crash()
#Throw rocks in a ocean
from turtle import Turtle, Screen
print("Creating an Ocean")
ocean = Screen()
ocean.title("Let's find Splash")
print("Creating a drawing turtle")
bob = Turtle()
bob.color('purple')
bob.speed(0)
def splash(x, y):
print("splash at", x, y)
bob.color('purple')
bob.up()
bob.goto(x, y)
bob.down()
bob.circle(20)
ocean.onclick(splash)
bob.ondrag(drag, btn=2)
ocean.listen()
from turtle import Turtle, Screen
import datetime
# get the current time and convert to the hand's angles
wn = Screen()
wn.title("Clock")
wn.bgcolor("saddlebrown")
wn.setup(width=1000, height=800)
currentDT = datetime.datetime.now()
# output current time
currentHour = currentDT.hour
if currentHour > 12:
currentHour = currentHour - 12
currentMinute = currentDT.minute
if currentMinute < 10:
print("Time logged in at - " + str(currentHour) + ":0" +
str(currentMinute))
else:
print("Time logged in at - " + str(currentHour) + ":" + str(currentMinute))
# outside circle
circle = Turtle()
circle.penup()
circle.pencolor("black")
circle.speed(0)
circle.hideturtle()
circle.goto(0, -370)
circle.pendown()
circle.fillcolor("gold")
circle.begin_fill()
def week__3(myChar):
import turtle , random
from turtle import Turtle, Screen
print(''' Django 볼을 획득하라!
노란색 Django볼을 획득하면 Mission clear 됩니다.''')
screen = Screen()
screen.setup(1200, 500)
Django = Turtle()
Django.shape('circle')
Django.color('yellow')
Django.up()
point_x = random.randint(-500,500)
point_y = random.randint(-250,250)
Django.goto(point_x,point_y)
player = Turtle()
player.speed('fastest')
PlayerY = 0
PlayerX = 0
def play():
if player.distance(Django) < 25:
turtle.clear()
turtle.write("Mission Clear",False,"center",font=("Arial",50,"normal"))
myChar.controlPiro(5)
myChar.controlCoding(10)
if player.distance(Django) > 25:
turtle.clear()
turtle.write("Game Over",False,"center",font=("Arial",50,"normal"))
myChar.controlPiro(5)
myChar.controlMoney(-2)
def moveX():
nonlocal PlayerX
screen.onkeypress(None, "Right")
player.clear()
player.penup()
player.goto(PlayerX, PlayerY)
player.pendown()
player.shape('turtle')
player.color('blue')
PlayerX += 10
screen.onkeypress(moveX, "Right")
def moveY():
nonlocal PlayerY
screen.onkeypress(None, "Up")
player.clear()
player.penup()
player.goto(PlayerX, PlayerY)
player.pendown()
player.shape('turtle')
player.color('blue')
PlayerY += 10
screen.onkeypress(moveY, "Up")
def move_X():
nonlocal PlayerX
screen.onkeypress(None, "Left")
player.clear()
player.penup()
player.goto(PlayerX, PlayerY)
player.pendown()
player.shape('turtle')
player.color('blue')
PlayerX -= 10
screen.onkeypress(move_X, "Left")
def move_Y():
nonlocal PlayerY
screen.onkeypress(None, "Down")
player.clear()
player.penup()
player.goto(PlayerX, PlayerY)
player.pendown()
player.shape('turtle')
player.color('blue')
PlayerY -= 10
screen.onkeypress(move_Y, "Down")
screen.listen()
turtle.ontimer(play, 9000)
moveY()
moveX()
move_X()
move_Y()
screen.mainloop()
from turtle import Screen
from snake import Snake
import time
from apple import Apple
from scoreboard import Scoreboard
scr = Screen()
scr.setup(width=600, height=600)
scr.bgcolor("black")
scr.title("SNAKE")
scr.tracer(0)
snake = Snake()
apple = Apple()
scoreboard = Scoreboard()
scr.listen()
scr.onkey(snake.up, "Up")
scr.onkey(snake.down, "Down")
scr.onkey(snake.left, "Left")
scr.onkey(snake.right, "Right")
end = False
while not end:
scr.update()
time.sleep(0.1)
snake.move()
# Eat apple
for segment in snake.segments:
def ejercicio141():
# CONFIGURACIÓN INICIAL DE LA VENTANA EMERGENTE CON SUS RESPECTIVAS PROPIEDADES
pantalla = Screen()
pantalla.setup(1020, 1025)
pantalla.screensize(1000, 1000)
pantalla.setworldcoordinates(-500, -500, 500, 500)
pantalla.delay(0)
# VALORES NECESARIOS PARA CADA UNO DE LOS CUERPOS
x1 = -200
y1 = -200
velocidad_x1 = -0.1
velocidad_y1 = 0
m1 = 20
# VALORES NECESARIOS PARA EL SEGUNDO CUERPO
x2 = 200
y2 = 200
velocidad_x2 = -0.1
velocidad_y2 = 0
m2 = 20
# CARACTERÍSTICAS RESPECTIVAS PARA EL PRIMER CUERPO
cuerpo1 = Turtle('circle')
cuerpo1.color('red')
cuerpo1.speed(0)
cuerpo1.penup()
cuerpo1.goto(x1, y1)
cuerpo1.pendown()
# CARACTERÍSTICAS RESPECTIVAS PARA EL SEGUNDO CUERPO
cuerpo2 = Turtle('circle')
cuerpo2.color('blue')
cuerpo2.speed(0)
cuerpo2.penup()
cuerpo2.goto(x2, y2)
cuerpo2.pendown()
# CICLO QUE PERMITE LA EJECUCIÓN DE LAS PROPIEDADES EN LA VENTANA EMERGENTE
for t in range(10000):
# PROPIEDAD PARA EL RADIO
r = sqrt((x2 - x1) ** 2 + (y2 - y1) ** 2)
# PROPIEDADES PARA SU RESPECTIVCA ACELERACIÓN
aceleracion_x1 = m2 * (x2 - x1) / r ** 3
aceleracion_y1 = m2 * (y2 - y1) / r ** 3
aceleracion_x2 = m1 * (x1 - x2) / r ** 3
aceleracion_y2 = m1 * (y1 - y2) / r ** 3
# PROPIEDAD PARA SU RESPECTIVA VELOCIDAD
velocidad_x1 += aceleracion_x1
velocidad_y1 += aceleracion_y1
velocidad_x2 += aceleracion_x2
velocidad_y2 += aceleracion_y2
# PROPIEDAD PARA LAS COORDENADAS
x1 = velocidad_x1
y1 = velocidad_y1
x2 = velocidad_x2
y2 = velocidad_y2
# PROPIEDAD PARA LOS CUERPOS.
cuerpo1.goto(x1, y1)
cuerpo2.goto(x2, y2)
from turtle import Screen
from snake import Snake
from food import Food
from scoreboard import Scoreboard
import time
theScreen = Screen()
theScreen.setup(width=600, height=600)
theScreen.bgcolor("black")
theScreen.title("The Snake Game")
theScreen.tracer(0)
theSnake = Snake()
theFood = Food()
theScore = Scoreboard()
theScreen.listen()
theScreen.onkeypress(theSnake.up, "Up")
theScreen.onkeypress(theSnake.down, "Down")
theScreen.onkeypress(theSnake.left, "Left")
theScreen.onkeypress(theSnake.right, "Right")
keepPlaying = True
while keepPlaying:
theScreen.update()
time.sleep(0.1)
theSnake.move()
theScore.showScore()
class Time:
# screen and turtle
turtle = Turtle()
turtle.fillcolor('gray')
turtle.hideturtle()
turtle.speed(0)
turtle._delay(0)
screen = Screen()
screen.setup(width=600, height=400)
screen.bgcolor('black')
n = numbers.Numbers()
d = digit.digit()
# other turtles
t1 = Turtle()
t1.hideturtle()
t1.speed(0)
t1._delay(0)
t1.fillcolor('white')
t2 = Turtle()
t2.hideturtle()
t2.speed(0)
t2._delay(0)
t2.fillcolor('white')
t3 = Turtle()
t3.hideturtle()
t3.speed(0)
t3._delay(0)
t3.fillcolor('white')
t4 = Turtle()
t4.hideturtle()
t4.speed(0)
t4._delay(0)
t4.fillcolor('white')
t5 = Turtle()
t5.hideturtle()
t5.speed(0)
t5._delay(0)
t5.fillcolor('white')
# now
def h1(self):
now = datetime.now()
h1 = str(now.strftime("%H")[0:1])
h1 = int(h1)
return h1
def h2(self):
now = datetime.now()
h2 = str(now.strftime("%H")[1:2])
h2 = int(h2)
return h2
def m1(self):
now = datetime.now()
m1 = str(now.strftime("%M")[0:1])
m1 = int(m1)
return m1
def m2(self):
now = datetime.now()
m2 = str(now.strftime("%M")[1:2])
m2 = int(m2)
return m2
# keret
def keret(self, x, width):
self.turtle.penup()
self.turtle.begin_fill()
self.turtle.setheading(90)
self.turtle.goto(x, -100)
self.turtle.pendown()
for i in range(2):
self.turtle.forward(220)
self.turtle.left(90)
self.turtle.forward(width)
self.turtle.left(90)
self.turtle.end_fill()
def fullkeret(self):
self.keret(-145, width=120)
self.keret(-25, width=120)
self.keret(25, width=50)
self.keret(145, width=120)
self.keret(265, width=120)
# numbers selector
def selector(self, number, size, turtle, x, y):
if number == 0:
self.n.number0(size=size, turtle=turtle, x=x, y=y)
if number == 1:
self.n.number1(size=size, turtle=turtle, x=x, y=y)
if number == 2:
self.n.number2(size=size, turtle=turtle, x=x, y=y)
if number == 3:
self.n.number3(size=size, turtle=turtle, x=x, y=y)
if number == 4:
self.n.number4(size=size, turtle=turtle, x=x, y=y)
if number == 5:
self.n.number5(size=size, turtle=turtle, x=x, y=y)
if number == 6:
self.n.number6(size=size, turtle=turtle, x=x, y=y)
if number == 7:
self.n.number7(size=size, turtle=turtle, x=x, y=y)
if number == 8:
self.n.number8(size=size, turtle=turtle, x=x, y=y)
if number == 9:
self.n.number9(size=size, turtle=turtle, x=x, y=y)
def digit_selector(self, number, size, turtle, x, y):
if number == 0:
self.d.num0(size=size, turtle=turtle, x=x, y=y)
if number == 1:
self.d.num1(size=size, turtle=turtle, x=x, y=y)
if number == 2:
self.d.num2(size=size, turtle=turtle, x=x, y=y)
if number == 3:
self.d.num3(size=size, turtle=turtle, x=x, y=y)
if number == 4:
self.d.num4(size=size, turtle=turtle, x=x, y=y)
if number == 5:
self.d.num5(size=size, turtle=turtle, x=x, y=y)
if number == 6:
self.d.num6(size=size, turtle=turtle, x=x, y=y)
if number == 7:
self.d.num7(size=size, turtle=turtle, x=x, y=y)
if number == 8:
self.d.num8(size=size, turtle=turtle, x=x, y=y)
if number == 9:
self.d.num9(size=size, turtle=turtle, x=x, y=y)
# base event + variables
oldh1 = 10
oldh2 = 10
oldm1 = 10
oldm2 = 10
oldsec = 10
valtozo = 1
def base_event(self):
m2 = self.m2()
if m2 != self.oldm2:
self.minute2(ido=m2)
print('minute2 changed')
self.oldm2 = m2
m1 = self.m1()
if m1 != self.oldm1:
self.minute1(ido=m1)
print('minute1 changed')
self.oldm1 = m1
h1 = self.h1()
if h1 != self.oldh1:
self.hour1(ido=h1)
print('hour1 changed')
self.oldh1 = h1
h2 = self.h2()
if h2 != self.oldh2:
self.hour2(ido=h2)
print('hour2 changed')
self.oldh2 = h2
self.screen.ontimer(fun=self.base_event, t=100)
# second
def second(self):
now = datetime.now()
second = str(now.strftime("%S")[1:2])
second = int(second)
if second != self.oldsec:
if self.valtozo == 1:
self.d.pont(turtle=self.t5, x=25, y=-100)
self.valtozo = self.valtozo - 1
else:
self.t5.clear()
self.valtozo = self.valtozo + 1
self.oldsec = second
self.screen.ontimer(fun=self.second, t=100)
# writing
def hour1(self, ido):
self.t1.clear()
"""self.selector(number=ido, size=100, turtle=self.t1, x=-145, y=-100)"""
self.digit_selector(number=ido,
size=80,
turtle=self.t1,
x=-145,
y=-100)
def hour2(self, ido):
self.t2.clear()
"""self.selector(number=ido, size=100, turtle=self.t2, x=-25, y=-100)"""
self.digit_selector(number=ido, size=80, turtle=self.t2, x=-25, y=-100)
def minute1(self, ido):
self.t3.clear()
"""self.selector(number=ido, size=100, turtle=self.t3, x=145, y=-100)"""
self.digit_selector(number=ido, size=80, turtle=self.t3, x=145, y=-100)
def minute2(self, ido):
self.t4.clear()
"""self.selector(number=ido, size=100, turtle=self.t4, x=265, y=-100)"""
self.digit_selector(number=ido, size=80, turtle=self.t4, x=265, y=-100)
# init
def __init__(self):
self.fullkeret()
self.base_event()
self.second()
self.screen.mainloop()
from random_walk_class import RandomWalk
from polygon_class import Polygon
import turtle
from turtle import Screen
from datetime import datetime
colors = ['#FA9579', '#654062', '#65D6CE', '#FFE9D6']
wn = Screen().setup(300, 300)
for i in range(8):
for col in colors:
turtle.color(col)
random_walk = RandomWalk(turtle, 50, 300, 300)
random_walk.draw_random_walk()
#for x in range(3, 100):
# turtle.speed(100)
# if x%2 == 0:
# shape = Polygon(10,x)
# shape.draw()
# else:
# shape = Polygon(10,x, 'left')
# shape.draw()
now = datetime.today().strftime('%Y-%m-%d-%H:%M:%S')
turtle.getcanvas().postscript(
file=f"step_4_18_300_300_pen_up_0/random_walk_{now}.eps")
random_walk.destroy()
import turtle
from turtle import Screen
tl = turtle.Turtle()
Screen().setup(height=1.0, width=1.0)
def arbre(n, l):
if n == 0:
return
elif n != 0:
tl.forward(l)
tl.left(30)
arbre(n - 1, l / 1.5)
tl.right(60)
arbre(n - 1, l / 1.5)
tl.left(30)
tl.backward(l)
arbre(10, 100)
turtle.mainloop()
def __init_drawing_window(cls):
if cls.__screen is None:
cls.__screen = Screen()
cls.__screen.bgcolor("black")
cls.__screen.setup(400, 300)
t.forward(peso)
t.left(90)
t.end_fill()
A = list() # Cria uma lista vazia
for c in range(7):
try:
A.append(int(input('Digite um valor: ')))
except:
print('Erro encotrado. Só números inteiros podem ser inseridos.')
cor = list() # Cria uma lista vazia
cor.append(str(input('Digite a cor da borda: '))) # Cria um elemento para a 1ª posição da lista
cor.append(str(input('Digite a cor do prenchimento: '))) # Cria um elemento para a 2ª posição da lista
tela = Screen() # Mostra a janela e seus atributos
tela.bgcolor("lightgreen")
touche = Turtle() # Cria a tartaruga
touche.pensize(3)
touche.penup()
touche.backward(120)
touche.pendown()
try:
touche.color(cor[0], cor[1])
except:
print('Erro encontrado. Você não inseriu uma cor válida.')
for a in A:
histograma(touche, a)
import turtle
from turtle import Turtle, Screen
my_turtle = Turtle()
my_win = Screen()
def draw_spiral(my_turtle, line_len):
if line_len > 0:
my_turtle.forward(line_len)
my_turtle.right(90)
draw_spiral(my_turtle, line_len - 5)
draw_spiral(my_turtle, line_len=100)
my_win.exitonclick()
def start(self):
for i in range(50000):
for p in self.planets:
p.step()
if i % 10 == 0:
Screen().update()
def main():
"""Main loop where all the game logic is handled.
Args: None.
Returns: None.
"""
game_window = Screen()
game_window.bgcolor("black")
game_window.title("The Bouncy Space Ship Game")
game_window.bgpic("background.gif")
border = Border()
game = Game()
player1_score = Score(-290, 310, 1)
player2_score = Score(190, 310, 2)
border.draw_border()
player1 = Player("blue")
player2 = Player("purple")
the_food = [] #List of Food objects.
for _ in range(Food.amount):
the_food.append(
Food()
) #Spawning the food onto the screen and adding them to the food list.
the_traps = [] #List of Trap objects.
for _ in range(Traps.amount):
the_traps.append(
Traps()
) #Spawning the traps onto the screen and adding them to the food list.
game_window.tracer(0) #Turn automatic scren updates off for preformance.
player1_score.change_score(0) #Start the score at 0.
player2_score.change_score(0)
game_active1 = True
game_active2 = True
game_window.listen()
game_window.onkey(
player1.turnleft, "Left"
) #Turn the player's avatar left when the left button is pressed.
game_window.onkey(player1.turnright, "Right")
game_window.onkey(
player1.increasespeed, "Up"
) #Increase the speed of the player's avatar when the up button is pressed.
game_window.onkey(player1.decreasespeed, "Down")
game_window.listen()
game_window.onkey(player2.turnleft, "A")
game_window.onkey(player2.turnright, "D")
game_window.onkey(player2.increasespeed, "W")
game_window.onkey(player2.decreasespeed, "S")
game_window.onkey(player2.turnleft, "a")
game_window.onkey(player2.turnright, "d")
game_window.onkey(player2.increasespeed, "w")
game_window.onkey(player2.decreasespeed, "s")
while game_active1 or game_active2:
game_window.update() #Update the game window every loop.
for food in the_food:
food.move() #Move the food.
if player1 is not None and game.touch_checker(
player1, food
): #If the player touches a food reset the food's position, play the eating sound, and update the score.
food.regenerate()
game.play_eating_sound()
player1_score.change_score(10)
if player2 is not None and game.touch_checker(player2, food):
food.regenerate()
game.play_eating_sound()
player2_score.change_score(10)
for trap in the_traps:
trap.move() #Move the trap.
if player1 is not None and game.game_over(
player1, trap
): #If a player's avatar hits a trap take it out of the game.
game.play_game_over_sound()
game_active1 = False
player1.hideturtle()
del player1
player1 = None
if player2 is not None and game.game_over(player2, trap):
game.play_game_over_sound()
game_active2 = False
player2.hideturtle()
del player2
player2 = None
if game_active1:
player1.move() #Move the player's avatar.
if game_active2:
player2.move()
if not game_active1: #End the game if player 1's avatar has a lower score than player 1 and it gets hit by a trap.
if player1_score.score < player2_score.score:
game_active2 = False
if not game_active2: #End the game if player 2's avatar has a lower score than player 2 and it gets hit by a trap.
if player2_score.score < player1_score.score:
game_active1 = False
game.update_game_status(player1_score.score,
player2_score.score) #Display the winner/ a draw.
sleep(2.5)
from turtle import Turtle, Screen
from random import seed, randint
seed()
DELAY = 100 # milliseconds
# setup the output window
picSize = (400, 600)
playGround = Screen()
playGround.screensize(*picSize)
# setup the turtles
bob = Turtle(shape='turtle', visible=False)
bob.penup()
bob.color('red')
bob.speed('slow')
jeff = Turtle(shape='turtle', visible=False)
jeff.penup()
jeff.color('blue')
jeff.speed('normal')
x_quadrant = -picSize[0] // 2, picSize[0] // 2
y_quadrant = -picSize[1] // 2, picSize[1] // 2
# find random positions for the turtles
jeff_xy = randint(*x_quadrant), randint(*y_quadrant)
bob_xy = randint(*x_quadrant), randint(*y_quadrant)
# find a point to move bob to and rotate towards its target location
if media < 9:
print("Notable")
else:
if media >= 9:
print("Sobresaliente!")
Examen(2, 9)
#//////////////////////////////////////////
import turtle
from turtle import Screen, Turtle
pantalla = Screen()
pantalla.setup(425, 225)
pantalla.screensize(400, 200)
dibuja = Turtle()
dibuja.forward(100)
dibuja.write("A \n\n")
dibuja.forward(130)
dibuja.write("B \n\n")
dibuja.forward(140)
dibuja.write("C \n\n")
dibuja.forward(140)
dibuja.write("D \n\n")
dibuja.forward(140)
pantalla.exitonclick()
def main():
# TODO 1: Configure screen
screen = Screen()
screen.setup(width=SCREEN_WIDTH, height=SCREEN_HEIGHT)
screen.bgcolor(SCREEN_BACKGROUND_COLOR)
screen.tracer(0)
# Add borders
border = Border()
border.createBorder()
# TODO 2: Configure initial snake
snake = Snake()
food = Food()
scoreboard = Scoreboard()
# TODO 3: Move the snake
screen.listen()
screen.onkey(snake.up, "Up")
screen.onkey(snake.down, "Down")
screen.onkey(snake.left, "Left")
screen.onkey(snake.right, "Right")
#global paused
#def unpause():
# global paused
# paused = not paused
#screen.onkey(unpause, "p")
game_is_on = True
while game_is_on:
#while paused:
# sleep(0.2)
screen.update()
sleep(SLEEP_TIME)
snake.move()
# TODO 4: Detect collision with food
snake_food_collision_distance = (
food.width() + snake.head.width()) / 2 - COLLISION_ERROR
if snake.head.distance(food) < snake_food_collision_distance:
scoreboard.score += 1
snake.add_segment()
food.refresh()
for segment in snake.tail:
while segment.position() == food.position():
food.clear()
food.refresh()
scoreboard.refresh()
# TODO 5: Detect collision with walls
pass_x_wall = (
snake.head.xcor() < -SCREEN_WIDTH / 2 + snake.head.width()
or snake.head.xcor() > SCREEN_WIDTH / 2 - snake.head.width())
pass_y_wall = (
snake.head.ycor() < -SCREEN_HEIGHT / 2 + snake.head.width()
or snake.head.ycor() > SCREEN_HEIGHT / 2 - snake.head.width())
wall_collision = pass_x_wall or pass_y_wall
if wall_collision:
scoreboard.resetHighestScore()
snake.resetSnake()
# TODO 6: Detect collision with tail
tail_head_collision_distance = snake.head.width() - COLLISION_ERROR
for segment in snake.tail[1:]:
if segment.distance(snake.head) < tail_head_collision_distance:
scoreboard.resetHighestScore()
snake.resetSnake()
screen.exitonclick()
from turtle import Turtle, Screen
timmy = Turtle()
timmy.shape('turtle')
timmy.color('coral')
timmy.forward(25)
myScreen = Screen()
print(myScreen.canvheight)
myScreen.exitonclick()
def plot_temp_vs_day(t_list):
# # t_list = [t_year, t_ave]
t = Turtle()
wn = Screen()
wn.tracer(0)
# t.speed(100)
t.ht()
# Setting grid coordinates
x_max = len(t_list[1])
x_min = 0
y_max = int(max(t_list[1]))
y_min = 0
if min(t_list[1]) < 0: y_min = int(min(t_list[1]) - 10)
# Grid Scales
x_scl = 20
y_scl = 20
wn.setworldcoordinates(x_min - 20, y_min - 20, x_max + 20, y_max + 20)
# Draw axis
axis = [[x_min, y_min],[x_max, y_min],[0.0, y_min],[0.0, y_max]]
for i in range(0, 4, 2):
t.up()
t.goto(axis[i][0],axis[0][1]) # Origin x,y (0,2)
t.down()
t.goto(axis[i + 1][0], axis[i + 1][1]) # highest point x,y (0,2)
t.up()
# Draw lines
# x-lines
t.up()
t.goto(x_min, y_min) #goes to origin
for i in range(x_max//x_scl):
t.up()
t.forward(x_scl)
t.left(90)
t.forward(1)
t.down()
t.forward(-2)
t.up()
t.forward(-4)
t.write(str(i * x_scl), font=("Arial", 14, "normal"))
t.forward(5)
t.right(90)
# y-lines
t.up()
t.goto(x_min, y_min) #goes to origin
t.left(90)
for i in range(y_max//y_scl):
t.up()
t.forward(y_scl)
t.left(90)
t.forward(1)
t.forward(8)
t.write(str(i * x_scl), font=("Arial", 14, "normal"))
t.forward(-8)
t.down()
t.forward(-2)
t.up()
t.forward(1)
t.right(90)
t.up()
# Draw the graph
t.color('blue')
t.goto(x_min, y_min)
t.down()
for i in range(len(t_list[1])):
if t_list[1][i] != -99:
# t.up()
t.goto(i, t_list[1][i])
t.down()
t.dot()
t.up()
# Draw the graph
t.color('green')
t.goto(x_min, y_min)
t.down()
for i in range(len(t_list[0])):
if t_list[0][i] != -99:
#t.up()
t.goto(i * 2.8969, t_list[0][i])
t.down()
t.dot()
wn.update()
wn.exitonclick()
"replacementRules": {
"F": "FF+[+F-F-F]-[-F+F+F]"
},
"depth": 3,
"step": 13.5,
"angle": 180.0 / 8,
"startpos": (90, -192),
"startdir": 90,
}
def main():
l1 = lindenmayer(LPen(), **herb)
l2 = lindenmayer(LPen(), **bush)
done = 0
while done < 2:
done = 0
for l in l1, l2:
try:
next(l)
except StopIteration:
done += 1
Screen().tracer(True)
return "Done!"
if __name__ == '__main__':
msg = main()
print(msg)
Screen().mainloop()
from turtle import Screen
from scoreboard import Scoreboard
from ball import Ball
from pitch import Pitch
from paddle import Paddle
import time
sc = Screen()
sc.setup(width=1000, height=600)
p = Pitch()
sc.bgcolor("black")
sc.title("Pong")
sc.listen()
paddle_one = Paddle()
paddle_one.position(1)
paddle_two = Paddle()
paddle_two.position(2)
ball = Ball()
scoreboard = Scoreboard()
sc.onkey(paddle_one.up, "Up")
sc.onkey(paddle_one.down, "Down")
game_on = True
while game_on:
sc.update()
#time.sleep(0.001)
if ball.distance(paddle_one.pos()) < 40 or ball.distance(
paddle_two.pos()) < 40:
ball.move(1)
#prevents ball getting 'stuck' to paddle
from turtle import Screen, Turtle
from yilan import Yilan
from yiyecek import Yiyecek
from skortahtasi import SkorTahtasi
import time
ekran = Screen()
ekran.setup(width=600, height=600)
ekran.bgcolor("black")
yilan = Yilan()
yemek = Yiyecek()
skorTahtasi = SkorTahtasi()
ekran.listen()
'''
ekran.onkey(yilan.sol, "Left")
ekran.onkey(yilan.sag, "Right")
ekran.onkey(yilan.yukari, "Up")
ekran.onkey(yilan.asagi, "Down")
'''
ekran.onkey(yilan.sol, "a")
ekran.onkey(yilan.sag, "d")
ekran.onkey(yilan.yukari, "w")
ekran.onkey(yilan.asagi, "s")
while True:
yilan.hareket_et()
time.sleep(0.1)
def __init__(self):
self.screen = Screen()
self.screen.bgcolor('black')
self.screen.tracer(0)
from turtle import Turtle, Screen, colormode
from random import choice, randint
kags = Turtle()
print(kags)
kags.shape("turtle")
kags.color("blue", "yellow")
kags.forward(100)
kags.right(90)
kags.forward(100)
kags.right(90)
kags.forward(100)
kags.right(90)
kags.forward(100)
my_screen = Screen()
print(my_screen.canvheight)
my_screen.exitonclick()
turtle = Turtle()
colormode(255)
colors = [
"red", "SeaGreen", "wheat", "yellow", "black", "purple", "IndianRed",
"DeepSkyBlue", "SlateGray"
]
directions = [0, 90, 180, 270]
for _ in range(200):
turtle.shape("turtle")
turtle.width(10)
# Module importieren
from turtle import Screen, Turtle
from time import sleep
# Bildschirm festlegen
bildschirm = Screen()
# Schildkröte festlegen
fred = Turtle()
# Dauerschleife
while True:
# Nutzer nach der Farbe fragen
farbe = input("Farbe: ")
# Hintergrundfarbe verändern
bildschirm.bgcolor(farbe)
# 1 Sekunde warten
sleep(1)
class SpaceShip(GameItem):
"This class defines a Space Ship and its properties"
# Constructor
def __init__(self, param_color="White"):
Turtle.__init__(self)
#self.color(param_color)
#pass
#self.shape("Triangle")
### MAIN ###
window = Screen()
window.setup(0.5, 0.75, 0, 0)
window.screensize(WINSIZE_WIDTH, WINSIZE_HEIGHT, "White")
window.setworldcoordinates(0, 0, WINSIZE_WIDTH, WINSIZE_HEIGHT)
window.title("Chasers")
spaceShip = SpaceShip()
window.onkeypress(spaceShip.turnLeft, "Left")
window.onkeypress(spaceShip.turnRight, "Right")
window.onkeypress(spaceShip.increaseSpeed, "Up")
window.onkeypress(spaceShip.decreaseSpeed, "Down")
window.listen()
spaceShip.setpos(GAMEMARGIN_WIDTH, GAMESIZE_HEIGHT)
while True:
from turtle import Screen, Turtle
from random import randint, choice
import turtle
import time
s=Screen()
s.bgcolor("white")
track = Turtle()
# # track = turtle.Turtle()
track.speed('fastest')
track.penup()
track.goto(-100, 200)
for step in range(15):
track.write(step, align='center')
track.right(90)
track.forward(10)
track.pendown()
track.forward(160)
track.penup()
track.backward(170)
track.left(90)
track.forward(20)
track.goto(200, 250)
track.write("Finish Line", align='center')
track.pendown()
track.right(90)
track.forward(300)
from turtle import Turtle, Screen
tim = Turtle()
screen = Screen()
def move_forward():
tim.forward(10)
def turn_right():
tim.right(5)
def turn_left():
tim.right(5)
screen.listen()
screen.onkey(key="space", fun=move_forward)
screen.onkey(key="Right", fun=turn_right)
screen.onkey(key="Left", fun=turn_left)
screen.exitonclick()
from turtle import Turtle, Screen
from paddle import Paddle
from scoreboard import Scoreboard
import ball
import time
# TODO Background
BACKGROUND_WIDTH = 800
BACKGROUND_HEIGHT = 600
background = Screen()
background.title("My Pong Game")
background.setup(width=BACKGROUND_WIDTH, height=BACKGROUND_HEIGHT)
background.bgcolor("black")
background.tracer(0)
# TODO dashed-line in the middle
dashed_midline = Turtle()
dashed_midline.penup()
dashed_midline.color("white")
dashed_midline.speed("fastest")
dashed_midline.hideturtle()
dashed_midline.goto(0, -300)
dashed_midline.setheading(90)
number_of_dashes = 30
dash_length = 10
gap_length = 10
for _ in range(number_of_dashes):
background.update()
dashed_midline.pendown()
dashed_midline.forward(dash_length)
