def kwadrat(kolor): #kwadrat
t.fillcolor(kolor)
t.begin_fill()
for i in range(4):
t.fd(B)
t.rt(90)
t.end_fill()
def drawStar(N, R):
turtle.reset()
a = 360/N
for i in range(N):
turtle.fd(R)
turtle.bk(R)
turtle.left(a)
def drawLine(self,color,coord1,coord2):
"""
dessine une ligne entre deux coordonné sur la grille
:param color: La couleur de la ligne
:param coord1: La première coordonné en tuple (i,j,"joueur")
:param coord2: La deuxième coordonné en tuple (i,j,"joueur")
"""
if coord1[2] == coord2[2] and coord2[2] == "you":
turtle.goto(38+coord1[1]*25,87-25*coord1[0])
elif coord1[2] == coord2[2] and coord2[2] == "enemy":
turtle.goto(-262+(25*coord1[1]),87-25*coord1[0])
else:
print('wrong player')
return 0
turtle.pensize(20)
turtle.pencolor(color)
if coord1[1] == coord2[1]: #Vertical
turtle.pendown()
turtle.setheading(270)
turtle.fd((coord2[0]-coord1[0])*25)
elif coord1[0] == coord2[0]: #horizontal
turtle.pendown()
turtle.setheading(0)
turtle.fd((coord2[1]-coord1[1])*25)
else:
print('Ligne non Hori ou Vert')
return 0
turtle.penup()
return 1
def ustDoNastKraw(ile, bokKw=10):
turtle.pu()
turtle.lt(90)
turtle.fd(bokKw)
turtle.rt(90)
turtle.rt(180)
turtle.pd()
def drawSootSprite(N, R):
# reset direction
turtle.reset()
# draw star
drawStar(N, R)
# draw body
turtle.dot(0.8*2*R)
# draw right eyeball
turtle.fd(0.2*R)
turtle.dot(0.3*R, 'white')
# draw right pupil
turtle.pu()
turtle.bk(0.1*R)
turtle.pd()
turtle.dot(0.05*R)
turtle.pu()
# centre
turtle.setpos(0, 0)
# draw left eyeball
turtle.bk(0.2*R)
turtle.pd()
turtle.dot(0.3*R, 'white')
# draw left pupil
turtle.pu()
turtle.fd(0.1*R)
turtle.pd()
turtle.dot(0.05*R)
turtle.hideturtle()
def elementSowy(r, bokKw, rMalegoKola):
##Rysujemy OD ŚRODKA
turtle.colormode(255)
turtle.fillcolor(209, 183, 255)
turtle.begin_fill()
turtle.circle(r)
turtle.end_fill()
turtle.pu()
turtle.lt(90)
turtle.fd(r)
turtle.lt(45)
turtle.fd(r)
turtle.lt(45+90)
turtle.pd()
turtle.fillcolor(0, 0, 255)
turtle.begin_fill()
kwadrat(bokKw)
turtle.end_fill()
turtle.pu()
turtle.fd((bokKw/4)*3)
turtle.lt(90)
turtle.fd(bokKw/4)
turtle.pd()
turtle.fillcolor(255, 255, 255)
turtle.begin_fill()
turtle.circle(rMalegoKola)
turtle.end_fill()
turtle.pu()
turtle.fd(bokKw / 2)
turtle.pd()
turtle.begin_fill()
turtle.circle(rMalegoKola)
turtle.end_fill()
def drawSide(l):
"""
Draw one side of the hexagon.
l is side length
"""
turtle.fd(l)
turtle.rt(60)
def rogi(bok):
gamma = 90 + 18
beta = 360 / 5
alpha = 180 - beta
romb(bok)
naGoreRombu(bok)
turtle.lt(gamma)
romb(bok)
naGoreRombu(bok)
turtle.rt(gamma)
romb(bok)
turtle.pu()
turtle.rt(gamma)
turtle.fd(bok)
turtle.lt(beta)
turtle.fd(60)
turtle.rt(beta)
turtle.pd()
romb(bok)
naGoreRombu(bok)
turtle.lt(alpha)
romb(bok)
turtle.lt(beta)
naGoreRombu(bok)
turtle.lt(beta*1.5)
naGoreRombu(bok)
turtle.rt(180)
def takieCos(n):
rotateUpwards = [0, 3, 4]
rot = -90
for j in range(0,2):
# for j in range(0,2):
turtle.fd(1.5*n)
turtle.rt(-90)
turtle.fd(n)
turtle.rt(90)
turtle.fd(n)
turtle.rt(90)
turtle.fd(n)
turtle.rt(-90)
turtle.fd(1.5*n)
if (j in rotateUpwards):
turtle.rt(-90)
else:
turtle.rt(90)
turtle.rt((-1)*rot)
# turtle.rt(180)
takieCos(n)
raw_input()
def ustNaStart(dlBokKw, ile):
turtle.pu()
turtle.bk(dlBokKw * ile / 2 +5)
turtle.lt(90)
turtle.fd(dlBokKw * (ile - 2) / 2 - 5)
turtle.rt(90)
turtle.pd()
def ustNaStart(r):
turtle.lt(90)
turtle.pu()
turtle.rt(90)
turtle.fd(r)
turtle.lt(90)
turtle.pd()
def main():
turtle.setup(800, 350, 200, 200)
turtle.penup()
turtle.fd(-300)
turtle.pensize(5)
drawDate(datetime.datetime.now().strftime('%Y%m%d'))
turtle.hideturtle()
def koch(size, n):
if n == 0:
turtle.fd(size)
else:
for angle in [0, 60, -120, 60]:
turtle.left(angle)
koch(size/3, n-1)
def tSquare(size, level):
""" The T-Square fractal.
http://en.wikipedia.org/wiki/T-Square_%28fractal%29
"""
if level < 1:
drawSquare(size, True)
else:
drawSquare(size, True)
bk(size / 4.0)
left(90)
fd(size / 4.0)
right(90)
tSquare(size / 2.0, level - 1)
up()
fd(size)
down()
tSquare(size / 2.0, level - 1)
right(90)
fd(size)
left(90)
tSquare(size / 2.0, level - 1)
bk(size)
tSquare(size / 2.0, level - 1)
left(90)
up()
fd(size * 3 / 4.0)
down()
right(90)
fd(size / 4.0)
def draw_l(word):
turtle.up()
turtle.clear()
turtle.setposition(0, 0)
turtle.setheading(0)
turtle.bk(INITIAL_POS[0])
turtle.down()
turtle.st()
stack = []
for char in word:
if char == '0':
turtle.fd(SIZE[0])
if char == '1':
turtle.fd(SIZE[0])
if char == '[':
stack.append((turtle.position(), turtle.heading()))
turtle.lt(45)
if char == ']':
position, heading = stack.pop()
turtle.up()
turtle.setposition(position)
turtle.setheading(heading)
turtle.rt(45)
turtle.down()
turtle.ht()
def turmandel(step, zoom, xres, yres, xthresh, ythresh):
turtle.setheading(0)
for y in range(yres):
turtle.pu()
turtle.setpos(0, y)
turtle.pd()
for x in range(xres):
x = float(x)
y = float(y)
u = float(x)/float((xres/zoom))-xthresh
v = float(y)/float((yres/zoom))-ythresh
x0 = float(u)
y0 = float(v)
a = 0.0
b = 0.0
i = step
while ((i>0) and (a+b<=4.0)):
a = float(x0*x0)
b = float(y0*y0)
y0 = float(2.0*x0*y0+v)
x0 = float(a-b+u)
i = i - 1
color = i % 255
turtle.pencolor((color, color, color))
if i < 1:
turtle.pencolor((0,0,0))
turtle.fd(1)
def jeden():
turtle.fd(50)
turtle.fillcolor(randint(0,255),randint(0,255),randint(0,255))
turtle.begin_fill()
kwadrat(50)
turtle.end_fill()
turtle.bk(50)
def naGoreWiezy(bokProst1, bokTroj):
turtle.pu()
turtle.fd(bokProst1)
turtle.rt(30)
turtle.fd(bokTroj)
turtle.lt(30)
turtle.pd()
def okoP(a):
turtle.begin_fill()
wielokat(6, a *4, 4)
turtle.end_fill()
turtle.rt(180)
turtle.fd(a * 4)
turtle.lt(360 / 6)
turtle.fd(a * 4)
turtle.lt(360 / 6)
turtle.fd(a * 4)
turtle.colormode(255)
turtle.fillcolor(255, 255, 255)
turtle.rt(180)
turtle.fd(a)
turtle.rt(120)
turtle.begin_fill()
wielokat(6, 2 * a, 4)
turtle.end_fill()
turtle.rt(60)
turtle.fd(a / 2)
turtle.rt(120)
turtle.fillcolor(0, 0, 0)
turtle.begin_fill()
wielokat(6, a, 4)
turtle.end_fill()
def drawSquare(myTurtle):
count = 0
while count < 4:
turtle.fd(20)
turtle.left(90)
count = count + 1
turtle.right(90)
def rowOfShapes(number):
for x in xrange(number):
hexaTrangle(25,90,randomColor(),randomColor())
turtle.left(90)
turtle.pu()
turtle.fd(15)
turtle.pd()
def sier(n,length):
if (n==0):
return
for i in range(3):
sier(n-1, length/2)
t.fd(length)
t.rt(120)
def ustDoNastElem(dlBokMalKw):
turtle.pu()
turtle.rt(90)
turtle.fd(dlBokMalKw * 5)
turtle.lt(90)
turtle.fd(dlBokMalKw)
turtle.pd()
def test_zigzag(self):
"""
Test that a AsyncTurtle ends up in the correct position
after several concurrent commands in sequence, and draws
a zigzag line on the canvas.
"""
turtle = AsyncTurtle(loop=self.loop)
tasks = [
asyncio.ensure_future(turtle.fd(10), loop=self.loop),
asyncio.ensure_future(turtle.lt(90), loop=self.loop),
asyncio.ensure_future(turtle.fd(10), loop=self.loop),
asyncio.ensure_future(turtle.rt(90), loop=self.loop),
asyncio.ensure_future(turtle.fd(10), loop=self.loop)
]
self.loop.run_until_complete(asyncio.wait(tasks, loop=self.loop))
self.loop.close()
self.assertEqual(turtle.pos()[0], 20)
self.assertEqual(turtle.pos()[1], 10)
expected_coords = [
0.0, 0.0,
10.0, 0.0,
10.0, -10.0,
20.0, -10.0
]
# Assume the last item id on the canvas is the line
# drawn by the turtle. Check if this assumption is valid.
line_id = max(turtle.screen.cv.find_all())
self.assertEqual(turtle.screen.cv.coords(line_id), expected_coords)
def ustDoKwadratu(dlBokKw):
turtle.pu()
turtle.fd(dlBokKw * 2)
turtle.lt(90)
turtle.fd(dlBokKw * 2)
turtle.lt(90)
turtle.pd()
def skidMark(lineLength):
turtle.pensize(2)
turtle.pencolor(0, 0, 0)
for x in range(lineLength):
turtle.pencolor(x,x,x)
turtle.fd(x)
turtle.right(90)
def ustDoElki(dlBokKw, bokKr):
turtle.pu()
turtle.fd(bokKr - dlBokKw)
turtle.lt(90)
turtle.fd(dlBokKw)
turtle.lt(90)
turtle.pd()
def ustDo2Elki(dlBokKw, bokKr, bokDl):
turtle.pu()
turtle.fd(bokKr - dlBokKw *2)
turtle.rt(90)
turtle.fd(bokDl - dlBokKw*2)
turtle.rt(90)
turtle.pd()
def cuadrado(lado, color):
turtle.color(color)
turtle.begin_fill()
for _ in xrange(4):
turtle.fd(lado)
turtle.right(90)
turtle.end_fill()
def ustNaStart(a):
turtle.pu()
turtle.bk(a)
turtle.lt(90)
turtle.fd(a / 2)
turtle.rt(90)
turtle.pd()
def drawline(draw):
drawGap()
turtle.pendown() if draw else turtle.penup()
turtle.fd(40)
drawGap()
turtle.right(90)
sides = int(input("How many sides would you like? "))
angle = 360 / sides
import turtle
for count in range(sides):
turtle.fd(50)
turtle.lt(angle)
mainloop()
def drawGap():
turtle.penup()
turtle.fd(7)
def zhi():
for i in range(0,2):
t.fd(30)
t.lt(30)
t.fd(10)
t.bk(10)
t.rt(60)
t.fd(10)
t.bk(10)
t.lt(30)
t.fd(30)
t.rt(30)
for i in range(0,2):
t.fd(10)
t.lt(60)
t.fd(10)
t.lt(120)
t.lt(30)
t.bk(90)
return
def draw_bowties(size, depth):
"""
Takes the parameters size (size of the bow tie) and depth (recursive depth
of the function) and draws multiple bow ties recursively.
Pre-Conditions: Turtle is up, facing east. Located at
the center of the largest bow tie.
Post-Conditions: Turtle is up, facing east. Located at
the center of the largest bow tie.
:param size: Size of the largest drawn bow tie.
:param depth: Depth of the recursive function.
:return: 0
"""
if depth <= 0:
pass
else:
draw_bowtie(size)
tt.left(30)
tt.fd(2 * size)
draw_bowties(size / 3, depth - 1)
tt.fd(-2 * size)
tt.left(120)
tt.fd(2 * size)
tt.left(180)
draw_bowties(size / 3, depth - 1)
tt.fd(2 * size)
tt.left(30)
tt.right(30)
tt.fd(2 * size)
draw_bowties(size / 3, depth - 1)
tt.fd(-2 * size)
tt.right(120)
tt.fd(2 * size)
tt.right(180)
draw_bowties(size / 3, depth - 1)
tt.fd(2 * size)
tt.right(30)
def draw_bowtie(size):
"""
Draws one bow tie shape on the canvas.
Pre-Conditions: Turtle is up, facing east. Located at
the center of the bow tie about to be drawn. Pen color black.
Post-Conditions: Turtle is up, facing east. Located at
the center of the bow tie just drawn. Pen color black, fill color orange.
:param size: Accepts any number value for the size of the bow tie.
:return: 0
"""
tt.down()
tt.left(30)
tt.fd(size)
tt.right(120)
tt.fd(size)
tt.right(120)
tt.fd(2 * size)
tt.left(120)
tt.fd(size)
tt.left(120)
tt.fd(size)
tt.right(30)
tt.up()
tt.fillcolor("orange")
tt.right(90)
tt.fd(size/4)
tt.left(90)
tt.down()
tt.begin_fill()
tt.circle(size/4)
tt.end_fill()
tt.up()
tt.left(90)
tt.fd(size/4)
tt.right(90)
def drawline(draw): #绘制单段数码管
p.pendown() if draw else p.penup()
p.fd(40)
p.right(90)
t.down()
for i in range(n):
t.fd(a)
t.lt(360 / n)
t.up()
t.lt(90)
t.fd(r)
t.color("yellow")
t.begin_fill()
circle(100)
t.end_fill()
t.color("blue")
t.rt(45)
t.fd(70)
t.begin_fill()
circle(8)
t.end_fill()
t.fd(70)
t.lt(90)
t.fd(70)
t.begin_fill()
circle(8)
t.end_fill()
t.fd(70)
t.lt(45)
t.width(10)
t.color("black")
t.pendown()
t.fd(20)
import turtle
#penup画笔提起函数
turtle.penup()
turtle.fd(100)
#pendown画笔放下来的函数，与penup对应使用
turtle.down()
turtle.circle(100, 360)
#pensize()函数主要用来设置画笔的粗细
turtle.pensize(10)
turtle.fd(100)
turtle.pensize(1)
turtle.fd(100)
#color函数用来设置画笔的颜色
turtle.color("red")
turtle.fd(100)
#begin_fill函数用；来填充一定的颜色,它必须和end_fill混合使用才会有效
turtle.begin_fill()
turtle.color("red")
turtle.circle(100)
print(turtle.filling()) #在填充的过程中是填充的状态，所以输出应该为true
turtle.end_fill()
print(turtle.filling()) #画结束之后输出为false
#filling函数的功能是返回填充的状态，true或者false
#clear()函数主要用来清空当前画布的图,但是并不改变画笔当前的位置，只保留下画笔当前的位置
#turtle.clear()
import turtle as t
t.color("#2dbb96")
t.goto(100,0)
for i in range(50):
t.left(80)
t.fd(100)
t.left(135)
t.fd(105)
def Abajo():
t.seth(270)
t.fd(10)
def Izquierda():
t.seth(180)
t.fd(10)
def Arriba():
t.seth(90)
t.fd(10)
def Derecha():
t.seth(0)
t.fd(10)
def main():
turtle.pensize(2)
turtle.pencolor("black")
turtle.up()
turtle.left(180)
turtle.fd(50)
turtle.left(90)
turtle.fd(200)
turtle.right(180)
turtle.down() #all getting into starting position to draw card
drawCard() #draws first card
turtle.fd(140)
turtle.left(90)
turtle.fd(140)
turtle.right(90) #centers turtle in order to write letter or number in center
turtle.down()
turtle.pencolor("red")
turtle.write("K", align="center", font=( "Arial", 100, "bold")) #writes K
turtle.up()
turtle.fd(200)
turtle.left(90)
turtle.fd(120)
turtle.right(90) #moves to top right corner to draw first diamond
turtle.fillcolor("red")
drawDiamond() #draws first diamond
turtle.right(90)
turtle.fd(240)
turtle.right(90)
turtle.fd(330)
turtle.right(180)#moves to bottom left corner to draw second diamond
drawDiamond() #draws second diamond
turtle.right(180)
turtle.fd(10)
turtle.left(90)
turtle.fd(390)
turtle.left(90)#moves into position to draw second card
turtle.down()
turtle.pencolor("black") #change pen back to black
drawCard() #draws second card
turtle.fd(140)
turtle.left(90)
turtle.fd(140)
turtle.right(90) # centers turtle in order to write letter or number in center
turtle.down()
turtle.write("8", align="center", font=("Arial", 100, "bold")) # writes 8
turtle.up()
turtle.fd(190)
turtle.left(90)
turtle.fd(100)
turtle.right(90) #moves turtle to top right to draw first heart
turtle.fillcolor("black")
drawTriangle() #draws bottom of heart
turtle.fd(40)
drawCircle() #draws left bump of heart
turtle.right(90)
turtle.fd(20)
turtle.left(90) #moves to right to do second bump on heart
drawCircle() #draws second bump of heart
turtle.right(90)
turtle.fd(180)
turtle.right(90)
turtle.fd(350)
turtle.right(180)
drawTriangle() # draws bottom of heart
turtle.fd(40)
drawCircle() # draws left bump of heart
turtle.right(90)
turtle.fd(20)
turtle.left(90) # moves to right to do second bump on heart
drawCircle() # draws second bump of heart
turtle.done()
def drawLineRight(draw):
turtle.right(90)
drawGap()
turtle.pendown() if draw else turtle.penup()
turtle.fd(40)
drawGap()
import turtle as t
import random # 랜덤함수를 생성
a = random.randint(0, 359) #a는 0도부터 359도까지 랜덤 설정
#벽만들기
t.speed(0) #가장 빠르게
t.up() #꼬리들기
t.goto(-250, -250) #벽을 그리기 위해 시작점으로 이동
t.down() #꼬리내리기
for x in range(4):
t.fd(500)
t.lt(90)
#거북이 중앙으로 가기
t.up()
t.home()
t.down()
#랜덤 설정된 각도로 회전후 벽까지 이동
t.seth(a)
while -250 < t.xcor() < 250 and -250 < t.ycor() < 250:
t.fd(1) # 벽에 부딪히기 전까지 앞으로 1만큼씩 이동
#while True: #아래를 무한 반복
#a=t.heading()
if 0 < a < 45:
t.lt(180 - 2 * a)
t.fd(1)
while -250 < t.xcor() < 250 and -250 < t.ycor() < 250:
t.fd(1)
if 45 < a < 90:
t.rt(2 * a)
t.fd(1)
while -250 < t.xcor() < 250 and -250 < t.ycor() < 250:
""" Нарисуйте, используя модуль turtle число:
3549
"""
import turtle as t
t.setup(800, 800)
t.width(5)
t.color('#ff0004')
t.speed(2)
for three in range(1):
t.down()
t.fd(50)
t.left(60)
t.bk(60)
t.right(60)
t.fd(30)
t.left(90)
t.bk(50)
t.right(90)
t.bk(50)
t.up()
for five in range(1):
t.goto(70, 0)
t.down()
t.fd(50)
t.bk(50)
t.right(90)
t.fd(50)
t.left(90)
def x(n):
if n == 0:
return x(n - 1)
turtle.rt(90)
y(n - 1)
turtle.fd(l)
# coding: utf-8 # https://blog.csdn.net/qq_38784098/article/details/82017601 import turtle as t t.pensize(1) for i in range(1,300,2): t.left(90) t.fd(i*2)
# coding:utf-8
import turtle as t
t.title("自动轨迹绘制")
t.setup(800, 600, 0, 0)
t.pencolor("red")
t.pensize(5)
# 数据读取
datas = []
f = open("data.txt")
for line in f:
line = line.replace("\n", "")
datas.append(list(map(eval, line.split(","))))
f.close()
# 自动绘制
for i in range(len(datas)):
t.pencolor(datas[i][3], datas[i][4], datas[i][5])
t.fd(datas[i][0])
if datas[i][1]:
t.right(datas[i][2])
else:
t.left(datas[i][2])
t.done()
# 300,0,144,1,0,0
# 300:行进距离，1:转向判断（0：左转，1：右转）,144:转向角度1,0,0:RGB三个通道颜色，0~1之间浮点数
def drawLineLeft(draw):
turtle.left(90)
drawGap()
turtle.pendown() if draw else turtle.penup()
turtle.fd(40)
drawGap()
def foot():
t.pensize(10)
t.color((240,128,128))
t.pu()
t.seth(90)
t.fd(-75)
t.seth(0)
t.fd(-180)
t.pd()
t.seth(-90)
t.fd(40)
t.seth(-180)
t.color("black")
t.pensize(15)
t.fd(20)
t.pensize(10)
t.color((240,128,128))
t.pu()
t.seth(90)
t.fd(40)
t.seth(0)
t.fd(90)
t.pd()
t.seth(-90)
t.fd(40)
t.seth(-180)
t.color("black")
t.pensize(15)
t.fd(20)
def eye():
t.color((255,155,192),"white")
t.pu()
t.seth(90)
t.fd(-20)
t.seth(0)
t.fd(-95)
t.pd()
t.begin_fill()
t.circle(15)
t.end_fill()
t.color("black")
t.pu()
t.seth(90)
t.fd(12)
t.seth(0)
t.fd(-3)
t.pd()
t.begin_fill()
t.circle(3)
t.end_fill()
t.color((255,155,192),"white")
t.pu()
t.seth(90)
t.fd(-25)
t.seth(0)
t.fd(40)
t.pd()
t.begin_fill()
t.circle(15)
t.end_fill()
t.color("black")
t.pu()
t.seth(90)
t.fd(12)
t.seth(0)
t.fd(-3)
t.pd()
t.begin_fill()
t.circle(3)
t.end_fill()
def hand():
t.color((255,155,192))
t.pu()
t.seth(90)
t.fd(-40)
t.seth(0)
t.fd(-27)
t.pd()
t.seth(-160)
t.circle(300,15)
t.pu()
t.seth(90)
t.fd(15)
t.seth(0)
t.fd(0)
t.pd()
t.seth(-10)
t.circle(-20,90)
t.pu()
t.seth(90)
t.fd(30)
t.seth(0)
t.fd(237)
t.pd()
t.seth(-20)
t.circle(-300,15)
t.pu()
t.seth(90)
t.fd(20)
t.seth(0)
t.fd(0)
t.pd()
t.seth(-170)
t.circle(20,90)
#AutoTraceDraw.py
import turtle as t
t.title('自动归集绘制')
t.setup(800, 600, 0, 0)
t.pencolor("red")
t.pensize(5)
#数据读取
datals = []
f = open("data.txt")
for line in f:
line = line.replace("\n", "")
datals.append(list(map(eval, line.split(","))))
f.close()
#自动绘制
for i in range(len(datals)):
t.pencolor(datals[i][3], datals[i][4], datals[i][5])
t.fd(data[i][0])
if datals[i][1]:
t.right(datals[i][2])
else:
t.left(datals[i][2])
import turtle
turtle.setup(650, 350, 200, 200)
turtle.penup()
turtle.fd(-250)
turtle.pendown()
turtle.pensize(25)
turtle.pencolor("purple")
turtle.seth(-40)
for i in range(4):
turtle.circle(40, 80)
turtle.circle(-40, 80)
turtle.circle(40, 40)
turtle.fd(40)
turtle.circle(16, 180)
turtle.fd(40 * 2 / 3)
import turtle turtle.fd(250) turtle.pendown() turtle.seth(120) turtle.fd(250) turtle.seth(-120) turtle.fd(250)
'''
自动轨迹绘制
1、定义数据文件格式（接口）
2、编写程序，根据文件接口解析参数绘制图形
3、编制数据文件
'''
#autotracedraw.py
import turtle as t
t.title('自动绘制')
t.setup(800, 600, 0, 0) #绘制窗口的大小
t.pencolor("red") #画笔的初始颜色
t.pensize(5) #画笔的大小
#数据文件的读取
datals = []
f = open("data.txt")
for line in f:
line = line.replace("\n", "")
datals.append(list(map(eval, line.split(","))))
#list map eval 作用是去掉字符串中的引号
#f.close()
#自动绘制
for i in range(len(datals)):
t.pencolor(datals[i][3], datals[i][4], datals[i][5])
t.fd(datals[i][0]) #表示一行的第一个元素表示行进距离
if datals[i][1]:
t.right(datals[i][2])
else:
t.left(datals[i][2])
f.close()
import turtle as t t.pensize(4) t.hideturtle() t.colormode(255) t.color((255, 155, 192), "pink") t.setup(840, 500) t.speed(10) t.pu() t.seth(90) t.fd(25) t.seth(0) t.fd(10) t.pd() t.pencolor(255, 155, 192) t.seth(10) t.begin_fill() t.circle(5) t.color(160, 82, 45) t.end_fill()