def main():
screen.mode("logo")
t = Turtle(shape="triangle")
t.penup(); t.back(280); t.pendown()
t.pensize(3)
itree(t, 250, 0.63,
["black", "brown", "red", "orange", "violet", "lightblue"])
def __init__(self, lmbda, mu, queue, server, speed):
"""
Arguments:
lmbda: arrival rate (float)
interarrivaltime: a randomly sampled interarrival time (negative exponential for now)
mu: service rate (float)
service: a randomly sampled service time (negative exponential for now)
queue: a queue object
shape: the shape of our turtle in the graphics (a circle)
server: a server object
served: a boolean that indicates whether or not this player has been served.
speed: a speed (integer from 0 to 10) to modify the speed of the graphics
balked: a boolean indicating whether or not this player has balked (not actually needed for the base Player class... maybe remove... but might be nice to keep here...)
"""
Turtle.__init__(self) # Initialise all base Turtle attributes
self.interarrivaltime = randexp(lmbda)
self.lmbda = lmbda
self.mu = mu
self.queue = queue
self.served = False
self.server = server
self.servicetime = randexp(mu)
self.shape('circle')
self.speed(speed)
self.balked = False
def init_drawman():
global t, x_current, y_current
t=Turtle()
t.penup()
x_current = 0
y_current = 0
t.goto(x_current,y_current)
def __init__(self, distance, color, speed):
Turtle.__init__(self)
self.pencolor(color)
self.speed = speed
self.penup()
self.forward(distance)
self.pendown()
def __init__(self, bilddatei, game):
Turtle.__init__(self, bilddatei)
self.game = game
self.penup()
self.speed(0)
self.onclick(self.hit)
self.start()
def main():
global screen
screen = Screen()
screen.colormode(255)
p = Turtle()
p.ht()
screen.tracer(75,0)
u = doit1(6, Turtle(undobuffersize=1))
s = doit2(7, Turtle(undobuffersize=1))
t = doit3(5, Turtle(undobuffersize=1))
v = doit4(6, Turtle(undobuffersize=1))
w = doit5(5, Turtle(undobuffersize=1))
a = clock()
while True:
done = 0
for b in u,s,t,v,w:
try:
next(b)
except:
done += 1
if done == 5:
break
screen.tracer(1,10)
b = clock()
return "runtime: {0:.2f} sec.".format(b-a)
def __init__(self, start=(10,10), end=(160,160),
width=200, height=200):
Turtle.__init__(self)
self.hideturtle()
self.screen.bgcolor("blue")
self.screen.setworldcoordinates(-DISTANCE, -DISTANCE,
DISTANCE+width,
DISTANCE+height)
self.screen.tracer(30,0)
self.pensize(5)
self.color("white", "black")
lab = {start}
while True:
new_points = set()
for point in lab:
x,y = map(add, point, choice(WAYS))
if (0 <= x <= width and
0 <= y <= height and
(x,y) not in lab and
(x,y) not in new_points):
self.penup()
self.goto(*point)
self.pendown()
self.goto(x,y)
new_points.add((x,y))
if new_points or end not in lab:
lab |= new_points
else:
break
self.mark_targets(start, end)
self.maze_map = lab
self.start = start
self.end = end
print("KONEC")
def draw_figures(figures):
for figure in figures:
t = Turtle()
t.speed('slow')
figure.draw_figure(t)
done()
class LSystem(object):
def __init__(self):
self.turtle = Turtle()
def reset(self):
self.turtle.reset()
def set_lsystem(self,lsystem):
self.axiom,self.rules,self.angle = lsystem
self.segment_length=5
def generate(self,generations_num):
def generate_help(start):
for e in start:
for r in self.rules.get(e,e):
yield r
if generations_num==0: return self.axiom
return generate_help(self.generate(generations_num-1))
def draw(self,generations,chunk_size):
iterable = interpret(self.turtle,self.generate(generations),self.angle)
l=[]
for e in iterable:
l.append(e)
if len(l)==chunk_size:
yield l
l=[]
if l: yield l
def init_drawman():
global t, x_current, y_current, _drawman_scale
t=Turtle()
t.penup()
x_current = 0
y_current = 0
t.goto(x_current, y_current)
drawman_scale(default_scale)
def main():
dimension = int(input('Enter dimension: '))
t = Turtle()
t.speed('fastest')
t.pensize(3)
draw_table(dimension, 50, t, -200, 300)
def __init__(self):
Turtle.__init__(self)
self.up()
self.setheading(random.randrange(360))
self.setpos(random.randrange(-200,200),random.randrange(-200,200))
self.down()
self.newHead = None
Schooler.swarm.append(self)
def __init__(self, col, row):
Turtle.__init__(self)
self.speed(0)
self.pu()
self.shape("square")
self.color("black", "")
self.shapesize((BLOCKWIDTH-1)/20., (BLOCKWIDTH-1)/20., 1)
self.goto(-COLUMNS*BLOCKWIDTH/2+14+col*BLOCKWIDTH, ROWS*BLOCKWIDTH/2 - 14 - row*BLOCKWIDTH)
def init_drawman():
global x_current, y_current, t, _drawman_scale
t=Turtle()
t.penup()
x_current=0
y_current=0
t.goto(x_current,y_current)
drawman_scale(default_scale) # функция задает масштаб по умолчанию
def test_segments_stored(self):
"""With branching, some points exist"""
my_turtle = Turtle()
my_turtle.speed(0)
my_tree = Tree()
my_tree.draw(my_turtle, max_depth=1)
self.assertTrue(len(my_tree.segments) > 0, "Some segments should be stored")
def __init__(self, picfile, action):
Turtle.__init__(self)
self.getscreen().register_shape(picfile)
self.shape(picfile)
def _action(x,y):
action()
self.onclick(_action)
self.pu()
self.speed(0)
def test_points_stored(self):
"""After one iteration, as least a trunk segment should be stored"""
my_turtle = Turtle()
my_turtle.speed(0)
my_tree = Tree()
my_tree.draw(my_turtle, max_depth=1)
# whitebox
self.assertTrue(len(my_tree._points) > 0, "Some points should be stored")
def init_drawman():
""" Инициализация черепашки """
global t, x_current, y_current, _drawman_scale
t = Turtle()
t.penup()
x_current = 0
y_current = 0
t.goto(x_current, y_current)
drawman_scale(default_scale)
def __init__(self, m, x, v, gravSys, shape):
Turtle.__init__(self, shape=shape)
self.penup()
self.m = m
self.setpos(x)
self.v = v
gravSys.planets.append(self)
self.gravSys = gravSys
self.resizemode("user")
self.pendown()
def init_drawman():
global t, x_current, y_current, _drawman_scale, _step_grid, _count_point
t = Turtle()
t.penup()
x_current = 0
y_current = 0
t.goto(x_current, y_current)
_count_point = default_count_point
_step_grid = default_step_grid
drawman_scale(default_scale,default_step_grid)
def init_drawman():
global t, x_current, y_current, _drawman_scale, dx, dy
t = Turtle()
t.penup()
x_current = 0
y_current = 0
dx = t.screen.window_width()/2
dy = t.screen.window_height()/2
t.goto(x_current, y_current)
drawman_scale(default_scale)
def __init__(self, distance, color, speed, angle):
Turtle.__init__(self)
self.pencolor(color)
self.speed = speed
self.angle = angle
self.penup()
self.forward(distance)
self.pendown()
self.left(90)
def __init__(self, m, x, v, gravSys, shape):
Turtle.__init__(self, shape)
gravSys.planets.append(self)
self.gravSys = gravSys
self.dt = self.gravSys.dt
self.penup()
self.m = m
self.setpos(x)
self.vel = v
self.pendown()
def init():
global TTiles, STiles, designer
screen.mode("logo")
screen.tracer(False)
designer = Turtle(visible=False)
designer.pu()
makerhomboidshapes()
screen.bgcolor("gray10")
STiles = [TStein(A/20., clickable=False),
TStein(A/20., clickable=False),
TStein(2*d/20., clickable=False),
TStein(A/40., clickable=False),
TStein(A/40., clickable=False),
TStein(d/20., "square", clickable=False),
TRhomboid(clickable=False)]
TTiles = [TStein(A/20.),
TStein(A/20.),
TStein(2*d/20.),
TStein(A/40.),
TStein(A/40.),
TStein(d/20., "square"),
TRhomboid()]
for s in STiles:
s.color((1,1,0.9))
s.turtlesize(s.size, s.size, 2)
s.ht()
screen.update()
designer.goto(-390,-288)
designer.pencolor("gray70")
designer.write("Inspired by Pavel Boytchev's Elica-Logo implementation of the tangram game",
font=("Courier", 10, "bold"))
nextBtn = Button("next.gif", resetgame)
nextBtn.setpos(320,220)
helpBtn = Button("help.gif", helpme)
helpBtn.setpos(320,-220)
def setup(color, distance):
t = Turtle()
t.pencolor(color)
t.penup()
t.forward(distance)
t.pendown()
return t
def init_drawman():
''' Инициализация черепашки '''
global t, x_current, y_current, _drawman_scale
shag=40
vod=0.5
t = Turtle()
t.penup()
x_current = 0
y_current = 0
t.goto(x_current, y_current)
drawman_scale(shag,vod)
def startTurtle():
t = Turtle()
t.hideturtle()
t.speed(10)
t.up()
t.setpos(-dim/2,-dim/2)
colormode(255)
return t
def init_drawman():
""" Инициализация Чертежника"""
global t, x_current, y_current, _drawman_scale, _drawman_pen_size
t = Turtle()
t.penup()
shag = 40
vod = 0.5
x_current = 0
y_current = 0
t.goto(x_current, y_current)
drawman_scale(default_scale, shag, vod)
drawman_pen_size(default_pen_size)
return a * b / math.gcd(a, b)
math.lcm = lcm
# Setup Turtle ###############################################################
window = Pixels(800)
turtle_global.getscreen().setup(width=int(window),
height=int(window),
startx=None,
starty=None)
turtle_global.screensize(int(window) - 20, int(window) - 20, "black")
turtle_global.hideturtle()
turtle = Turtle()
screen_size = Pixels(turtle.screen.screensize()[0])
world_size = CartesianResolution(900, 900)
Distance.set_conversion_factor(screen_size, world_size.x)
turtle.hideturtle()
turtle.speed(0)
turtle.color("white", "white")
turtle.begin_fill()
turtle.setpos(0, -int(TABLE_RADIUS_MM.pixels()))
turtle.circle(int(TABLE_RADIUS_MM.pixels()))
turtle.setpos(0, 0)
turtle.end_fill()
turtle.color("black", "white")
turtle.speed('fast')
turtle = Turtle()
def new_turtle():
tt = Turtle('circle')
tt.color('white')
tt.penup()
tt.speed(0)
return tt
from turtle import Turtle
t = Turtle()
t.screen.bgcolor("black")
t.hideturtle()
t.color("red")
def slanted_rectangle(length, width, angle):
t.setheading(angle)
for steps in range(2):
t.fd(width)
t.left(90)
t.fd(length)
t.left(90)
slanted_rectangle(length=200, angle=45, width=100)
# https://docs.python.org/3/library/turtle.html
# https://cs111.wellesley.edu/labs/lab01/colors
# https://pypi.org/
from turtle import Turtle, Screen
timmy = Turtle()
print(timmy)
timmy.shape("turtle")
timmy.color("coral")
timmy.forward(100)
my_screen = Screen()
print(my_screen.canvheight)
my_screen.exitonclick()
# go to pypi.prg and search for "prettytable" and install the pakage.
# File - settings - project folder - interpreter - click the "+" to add "install"
from prettytable import PrettyTable
# to see the source code, right click on "prettytable" and Go to implementation
table = PrettyTable()
table.field_names = ["Pokemon Name", "Type"]
table.add_row(["Pikcachu", "Electric"])
table.add_row(["Squirtle", "Water"])
table.add_row(["Charmander", "Fire"])
print(table)
table2 = PrettyTable()
table2.add_column("Pokemon Name", ["Pikcachu", "Squirtle", "Charmander"])
table2.add_column("Type", ["Electric", "Water", "Fire"])
from turtle import Turtle, Screen
TURTLE_SIZE = 20
screen = Screen()
yertle = Turtle(shape="turtle", visible=False)
yertle.penup()
yertle.goto(TURTLE_SIZE / 2 - screen.window_width() / 2,
screen.window_height() / 2 - TURTLE_SIZE / 2)
yertle.pendown()
yertle.showturtle()
for i in range(5):
yertle.penup()
yertle.forward(20)
yertle.right(90)
yertle.pendown()
yertle.showturtle()
input("Press to continue")
screen.mainloop()
def main():
p = Turtle()
p.color("green")
p.pensize(5)
# p.setundobuffer(None)
p.hideturtle(
) # Make the turtle invisible. It’s a good idea to do this while you’re in the middle of doing some complex drawing,
# because hiding the turtle speeds up the drawing observably.
# p.speed(10)
# p.getscreen().tracer(1,0)#Return the TurtleScreen object the turtle is drawing on.
p.speed(10)
# TurtleScreen methods can then be called for that object.
p.left(90) # Turn turtle left by angle units. direction 调整画笔
p.penup() # Pull the pen up – no drawing when moving.
p.goto(
0, -200
) # Move turtle to an absolute position. If the pen is down, draw line. Do not change the turtle’s orientation.
p.pendown(
) # Pull the pen down – drawing when moving. 这三条语句是一个组合相当于先把笔收起来再移动到指定位置，再把笔放下开始画
# 否则turtle一移动就会自动的把线画出来
# t = tree([p], 200, 65, 0.6375)
t = tree([p], 200, 65, 0.6375)
print("Colors extracted (rgb values): ")
for color in colors:
colors_list.append((color.rgb[0], color.rgb[1], color.rgb[2]))
# Handy function to return a random RGB value to be used throughout the program
def generate_rgb():
r = randint(0,255)
g = randint(0,255)
b = randint(0,255)
return (r, g, b)
#print(generate_rgb())
# Create and configure turtle
timmy_the_turtle = Turtle()
timmy_the_turtle.shape("turtle")
timmy_the_turtle.color("red")
colormode(255)
# Pen up so lines will not show
timmy_the_turtle.penup()
timmy_the_turtle.hideturtle()
# Adjust turtle to be at a spot
timmy_the_turtle.setheading(225)
timmy_the_turtle.forward(250)
timmy_the_turtle.setheading(90)
timmy_the_turtle.forward(50)
timmy_the_turtle.left(90)
timmy_the_turtle.forward(500)
timmy_the_turtle.right(90)
# ['DEFAULT_ANGLEOFFSET', 'DEFAULT_ANGLEORIENT', 'DEFAULT_MODE', 'START_ORIENTATION', '__class__', '__delattr__',
# '__dict__', '__dir__', '__doc__', '__eq__', '__format__', '__ge__', '__getattribute__', '__gt__', '__hash__',
# '__init__', '__init_subclass__', '__le__', '__lt__', '__module__', '__ne__', '__new__', '__reduce__', '__reduce_ex__',
# '__repr__', '__setattr__', '__sizeof__', '__str__', '__subclasshook__', '__weakref__', '_cc', '_clear', '_clearstamp',
# '_color', '_colorstr', '_delay', '_drawturtle', '_getshapepoly', '_go', '_goto', '_newLine', '_pen', '_polytrafo',
# '_reset', '_rotate', '_screen', '_setDegreesPerAU', '_setmode', '_tracer', '_undo', '_undogoto', '_update',
# '_update_data', '_write', 'back', 'backward', 'begin_fill', 'begin_poly', 'bk', 'circle', 'clear', 'clearstamp',
# 'clearstamps', 'clone', 'color', 'degrees', 'distance', 'dot', 'down', 'end_fill', 'end_poly', 'fd', 'fillcolor',
# 'filling', 'forward', 'get_poly', 'get_shapepoly', 'getpen', 'getscreen', 'getturtle', 'goto', 'heading', 'hideturtle',
# 'home', 'ht', 'isdown', 'isvisible', 'left', 'lt', 'onclick', 'ondrag', 'onrelease', 'pd', 'pen', 'pencolor', 'pendown',
# 'pensize', 'penup', 'pos', 'position', 'pu', 'radians', 'reset', 'resizemode', 'right', 'rt', 'screens', 'seth',
# 'setheading', 'setpos', 'setposition', 'settiltangle', 'setundobuffer', 'setx', 'sety', 'shape', 'shapesize',
# 'shapetransform', 'shearfactor', 'showturtle', 'speed', 'st', 'stamp', 'tilt', 'tiltangle', 'towards', 'turtlesize',
# 'undo', 'undobufferentries', 'up', 'width', 'write', 'xcor', 'ycor']
from turtle import Turtle
tess = Turtle()
distancia = 1
while True:
tess.speed(10000000)
tess.forward(distancia)
tess.right(90)
tess.forward(distancia)
tess.right(90)
tess.forward(distancia)
tess.begin_fill()
distancia = distancia * 1.6
root = tkinter.Tk()
root.withdraw()
is_race_on = False
screen = Screen()
screen.bgcolor("black")
screen.setup(width=500, height=400)
user_bet = screen.textinput(
title="Make your bet",
prompt="Which turtle will win the race? Make a bet.: ")
colors = ["red", "blue", "pink", "green", "purple", "orange"]
y_positions = [-70, -40, -10, 20, 50, 80]
all_turtles = []
for turtle_index in range(0, 6):
new_turtle = Turtle(shape="turtle")
new_turtle.penup()
new_turtle.color(colors[turtle_index])
new_turtle.goto(x=-230, y=y_positions[turtle_index])
all_turtles.append(new_turtle)
if user_bet:
is_race_on = True
while is_race_on:
for turtle in all_turtles:
if turtle.xcor() > 210:
is_race_on = False
winning_color = turtle.pencolor()
if winning_color == user_bet:
def __init__(self):
Turtle.__init__(self)
self.shape = hexagon
def main(): # Main function
for k in range(1, 25): # Picking the time
mylist = [] # lisr declaration
for i in range(1, c): # Reading the dataset every hour
fun(i, k, mylist)
print(mylist)
ROOT3_OVER_2 = sqrt(3) / 2 # Graphics Representation
FONT_SIZE = 12
FONT = ('Arial', FONT_SIZE, 'normal')
SIDE = 90 # the scale used for drawing
# Convert hex coordinates to rectangular
def hex_to_rect(coord):
v, u, w = coord
x = -u / 2 + v - w / 2
y = (u - w) * ROOT3_OVER_2
return x * SIDE, y * SIDE
def hexagon(turtle, radius, color, label):
clone = turtle.clone() # so we don't affect turtle's state
xpos, ypos = clone.position()
clone.setposition(xpos - radius / 2, ypos - ROOT3_OVER_2 * radius)
clone.setheading(-30)
clone.color('black', color)
clone.pendown()
clone.begin_fill()
clone.circle(radius, steps=6)
clone.end_fill()
clone.penup()
clone.setposition(xpos, ypos - FONT_SIZE / 2)
clone.write(label, align="center", font=FONT)
# Initialize the turtle
tortoise = Turtle(visible=False)
tortoise.speed('fastest')
tortoise.penup()
Dict2 = {
'Live linguistic news': 'Red',
'Live sports event': 'Grey',
'Cinematic movies': 'Blue',
'Anime/Cartoon': 'Pink',
'Study related material': 'Orange',
'Company related material': 'Cyan',
'Web Series': 'Yellow',
'Fitness videos': 'Green',
'Online gaming': 'White'
}
coords = [[0, 0, 0], [0, 1, -1], [-1, 1, 0], [-1, 0, 1], [0, -1, 1],
[1, -1, 0], [1, 0, -1], [-2, 1, 1], [4, 4, 1], [1, 1, 4]]
labels = mylist
#colors = [Dict2[8], Dict2[3], Dict2[8], Dict2[8], Dict2[1], Dict2[8], Dict2[8],Dict2[1],Dict2[1],Dict2[1]]
colors = [
Dict2[mylist[0]], Dict2[mylist[1]], Dict2[mylist[2]],
Dict2[mylist[3]], Dict2[mylist[4]], Dict2[mylist[5]],
Dict2[mylist[6]], Dict2[mylist[7]], Dict2[mylist[8]],
Dict2[mylist[9]]
]
# Plot the points
for hexcoord, color, label in zip(coords, colors, labels):
tortoise.goto(hex_to_rect(hexcoord))
hexagon(tortoise, SIDE, color, label)
# Wait for the user to close the window
screen = Screen()
time.sleep(5)
screen.exitonclick()
while score < 50:
# open prompt for user question
answer_state = screen.textinput(
title=f"{score}/50 States",
prompt="What's another State's name?").title()
if answer_state.title() == "Exit":
# generate list of non guessed states
missing_states = [
state for state in us_states_list if state not in guessed_states
]
# generate a csv file with all states user couldn't name
new_data = pandas.DataFrame(missing_states)
new_data.to_csv("states_to_learn.csv")
# exit prompt
break
# check in all the states name
for nb in range(len(us_states_name)):
# check if user answer match with one of US States name
if str(answer_state) == str(us_states_name[nb]):
guessed_states.append(answer_state)
# write name of the state at the state coor, increase score
name_on_map = Turtle()
name_on_map.hideturtle()
name_on_map.penup()
name_on_map.goto(us_states_x[nb], us_states_y[nb])
name_on_map.write(f"{answer_state}", font=("Calibri", 8, "bold"))
score += 1
turtle.mainloop()
# set screen size using setup method
screen.setup(width=600, height=600)
screen.bgcolor("black")
screen.title("Snake Game")
# turn screen tracker off - things are happening in code
# but it is not showing on screen. screen.update will refresh the screen
# and show what has been happening.
screen.tracer(0)
starting_positions = [(0, 0), (-20, 0), (-40, 0)]
# for movement create an empty list of segments
segments = []
#new turtle 3 20x20 3 squares lined up on the horizon
for position in starting_positions:
new_segment = Turtle("square")
new_segment.color("white")
new_segment.penup()
new_segment.goto(position)
segments.append(new_segment)
game_is_on = True
while game_is_on:
# once all segments have moved calling update
screen.update()
# slow the snake down
time.sleep(0.1)
# for i in segments:
# i.forward(20)
# change loop so that it goes from last to first, in reverse order
# use the range type of for loop and pass in start,stop and step
from turtle import Turtle, Screen
timmy = Turtle()
def move(user):
user.forward(100)
user.right(90)
for i in range(4):
move(timmy)
screen = Screen()
screen.exitonclick()
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""
Created on Thu Oct 8 13:14:00 2020
@author: mhimanshu
"""
from turtle import Turtle
r=Turtle()
lenght = 10
dx = 5
for x in range(40):
lenght = lenght + dx*3
r.forward(lenght)
r.left(120)
r.forward(lenght)
r.left(120)
r.forward(lenght)
r.penup()
r.forward(dx)
r.right(60)
r.forward(dx)
r.right(180)
r.pendown()
input("enter")
exit()
class Pen:
score_a = 0
score_b = 0
def __init__(self):
self.pen = Turtle()
self.pen.speed(0)
self.pen.shape("square")
self.pen.color("white")
self.pen.penup()
self.pen.hideturtle()
self.pen.goto(0, 260)
self.pen.write("0 0", align="center", font=("Courier", 24, "normal"))
def a_win(self):
self.score_a += 1
self.pen.clear()
self.pen.write("{} {}".format(
self.score_a, self.score_b), align="center", font=("Courier", 24, "normal"))
def b_win(self):
self.score_b += 1
self.pen.clear()
self.pen.write("{} {}".format(
self.score_a, self.score_b), align="center", font=("Courier", 24, "normal"))
# A turtle in a big pond that knows your voice
from turtle import Turtle, Screen
print("Creating and Ocean")
ocean = Screen()
ocean.title("Lets find Nemo")
print("Creating a turtle")
bob = Turtle()
print("Defining some commands")
def keyLeft():
bob.left(45)
def keyRight():
bob.right(45)
def keyUp():
bob.forward(20)
def keyDown():
bob.backward(20)
def keyHome():
def init_drawman():
global t, x_current, y_current
x_current = 0
y_current = 0
t = Turtle()
t.turtlesize(1)
t.shape('turtle')
t.color('darkgreen')
t.penup()
t.goto(x_current, y_current)
from turtle import Turtle, Screen
tim = Turtle()
screen = Screen()
def move_forwards():
tim.forward(2)
def move_backwards():
tim.backward(2)
def counter_clockwise():
tim.left(5)
def clockwise():
tim.right(5)
def clear_drawing():
tim.reset()
screen.listen()
screen.onkey(move_forwards, "w")
screen.onkey(move_backwards, "s")
screen.onkey(counter_clockwise, "a")
screen.onkey(clockwise, "d")
# Named Constants
DELTA = 3
MINIMUM = DELTA * 2
CURSOR_SIZE = 20
num_squares = -1
# Gets input for user on the number of squares needed. In this case 100
while num_squares < 1:
try:
num_squares = int(input('Input the number of squares: '))
except ValueError:
print("please enter an integer.")
if num_squares < 1:
print("You must have at least 1 square.")
# Starts Turtle
screen = Screen()
turtle = Turtle("square", visible=False)
turtle.fillcolor("white")
# Uses a loop to stamp the squares into place instead of drawing them.
for size in range(((num_squares - 1) * DELTA) + MINIMUM, MINIMUM - 1, -DELTA):
turtle.goto(turtle.xcor() + DELTA / 2, turtle.ycor() - DELTA / 2)
turtle.shapesize(size / CURSOR_SIZE)
turtle.stamp()
# Closes turtle when the user clicks.
screen.exitonclick()
from turtle import Turtle
myTurtle = Turtle()
myWin = myTurtle.getscreen()
def listSum(numlist):
if len(numlist) == 1:
return numlist[0]
else:
return numlist[0] + listSum(numlist[1:])
def tostr(n, base):
convertStr = "0123456789ABCDEF"
if n < base:
return convertStr[n]
else:
return tostr(n // base, base) + convertStr[n % base]
def drawspiral(myTurtle, lineLen):
if lineLen > 0:
myTurtle.forward(lineLen)
myTurtle.right(90)
drawspiral(myTurtle, lineLen - 5)
#1.
lst = [3, 5, 7, 9]
print(listSum(lst))
return [3, 4]
elif opc == 2:
return [4, 6]
else:
return [6, 8]
# Programa principal
[filas, columnas] = menu()
pantalla = Screen()
pantalla.setup(columnas * 50, filas * 50)
pantalla.screensize(columnas * 50, filas * 50)
pantalla.setworldcoordinates(-.5, -.5, columnas + .5, filas + .5)
pantalla.delay(0)
tortuga = Turtle()
tortuga.hideturtle()
simbolo = crea_matriz(filas, columnas)
tablero = crea_matriz(filas, columnas)
temporal1 = None
temporal2 = None
inicializa_tablero(tablero)
rellena_simbolos(simbolo)
dibuja_tablero(tablero, simbolo)
pantalla.onclick(clic)
pantalla.mainloop()
# -*- coding: utf-8 -*-
#!/usr/bin/python3
from turtle import Screen, Turtle
pantalla = Screen()
ancho = 625
alto = 425
pantalla.setup(ancho, alto)
pantalla.screensize(ancho - 25, alto - 25)
pantalla.setworldcoordinates(-50, -150, 350, 250)
tortuga = Turtle()
tortuga.speed(1)
tortuga.pensize(3)
tortuga.dot(10)
tortuga.forward(100)
tortuga.dot(10)
tortuga.forward(100)
tortuga.dot(10)
tortuga.forward(100)
tortuga.dot(10)
tortuga.penup()
tortuga.goto(0, 100)
tortuga.pendown()
tortuga.pencolor('red')
tortuga.pensize(5)
tortuga.circle(20)
tortuga.forward(50)
tortuga.pensize(4)
from turtle import Turtle, Screen
import turtle as t
timmy = Turtle()
timmy.shape("turtle")
timmy.color("#EA4335")
t.colormode(255)
import random
def random_color():
r = random.randint(0, 255)
g = random.randint(0, 255)
b = random.randint(0, 255)
random_rgb = (r, g, b)
# tuple is immutable
return random_rgb
def draw_circle():
timmy.pensize(2)
timmy.left(25)
timmy.circle(100)
timmy.speed("fastest")
for walk in range(200):
timmy.color(random_color())
draw_circle()
"""
stops when reach the first circle
def add_segment(self, pos):
new_segment = Turtle('square')
new_segment.color('white')
new_segment.penup()
new_segment.goto(pos)
self.segments.append(new_segment)
from turtle import Turtle, Screen
cursor = Turtle()
screen = Screen()
cursor.shape()
def reset():
cursor.clear()
cursor.reset()
def btn_up():
cursor.fd(5)
def btn_down():
cursor.back(5)
def btn_left():
head = cursor.heading() + 5
cursor.setheading(head)
def btn_right():
head = cursor.heading() - 5
cursor.setheading(head)
screen.listen()
def create_car(self):
new_car = Turtle("square")
new_car.shape('square')
new_car.shapesize(1, 2)
new_car.color(random.choice(COLORS))
new_car.penup()
new_car.goto(300, random.randint(-250, 250))
self.all_cars.append(new_car)
def add_segment(self, position):
new_snake = Turtle("square")
new_snake.color("white")
new_snake.penup()
new_snake.goto(position)
self.segments.append(new_snake)
def __init__ (self,x,y):
Turtle.__init__(self)
turtle.register_shape("rectangle",((0,0),(0,y),(x,y),(x,0),(0,0)))
self.shape("rectangle")
from turtle import Turtle root = Turtle() root.left(45) root.forward(60) root.right(135) root.forward(80) root.right(135) root.forward(110) root.left(135) root.forward(80) print(root.position()) root.left(135) root.forward(60) root.penup() root.setposition(42.43, 42.43) root.pendown() root.left(135) root.forward(30) root.penup() root.forward(10) root.pendown() root.forward(40) root.penup() root.setposition(-35.36, -39.79) root.pendown() root.left(180) root.forward(10) root.penup() root.forward(10) root.pendown() root.forward(40)
def __init__(self, w, h):
Turtle.__init__(self, visible=False)
self.screen = Screen()
self.screen.setup(w, h)
self.speed(0)
self.penup()
self.goto(-WINWIDTH//2 + 50, -WINHEIGHT//2 + 20)
self.pencolor("yellow")
def create_turtles(ne):
for i in range(ne):
t = Turtle()
t.ht()
t.speed(0)
t.seth(i * 360.0 / ne)
t.width(3)
return s.turtles()
