def rysuj():
turtle.tracer(0, 0) # wylaczenie animacji co KROK, w celu przyspieszenia
turtle.hideturtle() # ukrycie glowki zolwika
turtle.penup() # podnosimy zolwia, zeby nie mazal nam linii podczas ruchu
ostatnie_rysowanie = 0 # ile kropek temu zostal odrysowany rysunek
for i in xrange(ILE_KROPEK):
# losujemy wierzcholek do ktorego bedziemy zmierzac
do = random.choice(WIERZCHOLKI)
# bierzemy nasza aktualna pozycje
teraz = turtle.position()
# ustawiamy sie w polowie drogi do wierzcholka, ktorego wczesniej obralismy
turtle.setpos(w_polowie_drogi(teraz, do))
# stawiamy kropke w nowym miejscu
turtle.dot(1)
ostatnie_rysowanie += 1
if ostatnie_rysowanie == OKRES_ODSWIEZENIA:
# postawilismy na tyle duzo kropek, zeby odswiezyc rysunek
turtle.update()
ostatnie_rysowanie = 0
pozdrowienia()
turtle.update()
def passeio(dim, lado, passos):
# Prepara grelha
turtle.speed(0)
grelha_2(dim,lado)
turtle.color('red')
turtle.home()
turtle.pendown()
# Passeio
turtle.speed(6)
turtle.dot()
turtle.showturtle()
lim_x = lim_y = (dim*lado)//2
cor_x = 0
cor_y = 0
for i in range(passos):
vai_para = random.choice(['N','E','S','W'])
if (vai_para == 'N') and (cor_y < lim_y):
cor_y += lado
turtle.setheading(90)
turtle.fd(lado)
elif (vai_para == 'E') and (cor_x < lim_x):
cor_x += lado
turtle.setheading(0)
turtle.fd(lado)
elif (vai_para == 'S') and (cor_y > -lim_y):
cor_y -= lado
turtle.setheading(270)
turtle.fd(lado)
elif (vai_para == 'W') and (cor_x > -lim_x):
cor_x -= lado
turtle.setheading(180)
turtle.fd(lado)
else:
print((vai_para,turtle.xcor(),turtle.ycor()))
continue
def SetupClock(radius):
# 建立表的外框
turtle.reset()
turtle.pensize(7)
for i in range(60):
Skip(radius)
if i % 5 == 0:
turtle.forward(20)
Skip(-radius - 20)
Skip(radius + 20)
if i == 0:
turtle.write(int(12), align="center", font=("Courier", 14, "bold"))
elif i == 30:
Skip(25)
turtle.write(int(i/5), align="center", font=("Courier", 14, "bold"))
Skip(-25)
elif (i == 25 or i == 35):
Skip(20)
turtle.write(int(i/5), align="center", font=("Courier", 14, "bold"))
Skip(-20)
else:
turtle.write(int(i/5), align="center", font=("Courier", 14, "bold"))
Skip(-radius - 20)
else:
turtle.dot(5)
Skip(-radius)
turtle.right(6)
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 draw_stars():
for i in range(NSTARS):
x = random.randint(MINX, MAXX)
y = random.randint(GROUNDY, MAXY)
turtle.goto(x, y)
turtle.color('white')
turtle.dot(1)
def render(tree, length, width):
"Draws a given phylogenetic tree constrained by dimensions of"
"length and width."
root = tree[0]
leftTree = tree[1]
rightTree = tree[2]
if leftTree == ():
turtle.dot(10)
turtle.write(root , font=("Arial", 20, "normal"))
return
else:
turtle.dot(10)
turtle.write(root, font=("Arial", 20, "normal"))
turtle.left(90)
turtle.forward(width)
turtle.right(90)
turtle.forward(length)
render(leftTree, 0.5*length, 0.5*width)
turtle.back(length)
turtle.left(90)
turtle.backward(2*width)
turtle.right(90)
turtle.forward(length)
render(rightTree, 0.5*length, 0.5*width)
turtle.back(length)
turtle.right(90)
turtle.back(width)
turtle.left(90)
return
def draw_dot(x, y):
goto(x, y)
turtle.color("blue")
if x % 2 == 1 and y % 2 == 1:
turtle.dot(5)
else:
turtle.dot(3)
def main():
ap = ArgumentParser()
ap.add_argument('--speed', type=int, default=10,
help='Number 1-10 for drawing speed, or 0 for no added delay')
ap.add_argument('program')
args = ap.parse_args()
for kind, number, path in parse_images(args.program):
title = '%s #%d, path length %d' % (kind, number, path.shape[0])
print(title)
if not path.size:
continue
pen_up = (path==0).all(axis=1)
# convert from path (0 to 65536) to turtle coords (0 to 655.36)
path = path / 100.
turtle.title(title)
turtle.speed(args.speed)
turtle.setworldcoordinates(0, 655.36, 655.36, 0)
turtle.pen(shown=False, pendown=False, pensize=10)
for i,pos in enumerate(path):
if pen_up[i]:
turtle.penup()
else:
turtle.setpos(pos)
turtle.pendown()
turtle.dot(size=10)
_input('Press enter to continue')
turtle.clear()
turtle.bye()
def ex_good():
return 9, "bull"
# using turtle these coordinates draw a bull
import turtle
first = [146,399,163,403,170,393,169,391,166,386,170,381,170,371,170,355,169,346,167,335,170,329,170,320,170,
310,171,301,173,290,178,289,182,287,188,286,190,286,192,291,194,296,195,305,194,307,191,312,190,316,
190,321,192,331,193,338,196,341,197,346,199,352,198,360,197,366,197,373,196,380,197,383,196,387,192,
389,191,392,190,396,189,400,194,401,201,402,208,403,213,402,216,401,219,397,219,393,216,390,215,385,
215,379,213,373,213,365,212,360,210,353,210,347,212,338,213,329,214,319,215,311,215,306,216,296,218,
290,221,283,225,282,233,284,238,287,243,290,250,291,255,294,261,293,265,291,271,291,273,289,278,287,
279,285,281,280,284,278,284,276,287,277,289,283,291,286,294,291,296,295,299,300,301,304,304,320,305,
327,306,332,307,341,306,349,303,354,301,364,301,371,297,375,292,384,291,386,302,393,324,391,333,387,
328,375,329,367,329,353,330,341,331,328,336,319,338,310,341,304,341,285,341,278,343,269,344,262,346,
259,346,251,349,259,349,264,349,273,349,280,349,288,349,295,349,298,354,293,356,286,354,279,352,268,
352,257,351,249,350,234,351,211,352,197,354,185,353,171,351,154,348,147,342,137,339,132,330,122,327,
120,314,116,304,117,293,118,284,118,281,122,275,128,265,129,257,131,244,133,239,134,228,136,221,137,
214,138,209,135,201,132,192,130,184,131,175,129,170,131,159,134,157,134,160,130,170,125,176,114,176,
102,173,103,172,108,171,111,163,115,156,116,149,117,142,116,136,115,129,115,124,115,120,115,115,117,
113,120,109,122,102,122,100,121,95,121,89,115,87,110,82,109,84,118,89,123,93,129,100,130,108,132,110,
133,110,136,107,138,105,140,95,138,86,141,79,149,77,155,81,162,90,165,97,167,99,171,109,171,107,161,
111,156,113,170,115,185,118,208,117,223,121,239,128,251,133,259,136,266,139,276,143,290,148,310,151,
332,155,348,156,353,153,366,149,379,147,394,146,399]
second = [156,141,165,135,169,131,176,130,187,134,191,140,191,146,186,150,179,155,175,157,168,157,163,157,159,
157,158,164,159,175,159,181,157,191,154,197,153,205,153,210,152,212,147,215,146,218,143,220,132,220,
125,217,119,209,116,196,115,185,114,172,114,167,112,161,109,165,107,170,99,171,97,167,89,164,81,162,
77,155,81,148,87,140,96,138,105,141,110,136,111,126,113,129,118,117,128,114,137,115,146,114,155,115,
158,121,157,128,156,134,157,136,156,136]
def pairify(l):
return zip(l[::2], l[1::2])
pairs = pairify(first) + pairify(second)
for pair in pairs:
turtle.setpos(pair)
turtle.dot()
def f1(x): turtle.penup() thex = x they = turtle.goto(thex,they) turtle.pendown() turtle.dot() turtle.penup()
def graphFunctionB(userFloat) :
x = 0
turtle.up()
while(x <= 3) :
y = functionB(x, userFloat)
turtle.goto(x, y)
turtle.dot(10, "red")
x = x + .2
def plotPoints(points): if type(points) == list: for x,y in points: toXY(x,y) turtle.dot(5) elif type(points) == tuple: toXY(points[0],points[1]) turtle.dot(5)
def radar_chart(data):
# Some "typical" test data
#print "Hello"
length=len(data) # stores the length of the data provided
turtle.home() # Sets the turtle to position (0,0)
division=360/length #what angle is needed for invidual lines
poslist=[] #list to store current position
valpos=[] #list to store position
j=0
turtle.hideturtle() #hides the arrow
#Draw the foundation of the Radar Chart
for i in range(length): # Loop until all the given data is plotted
turtle.forward(200) #move turtle forward
turtle.dot(10,"black") # Draw the black dot at the end of each data
nowpos=turtle.pos() # store the current position
poslist.append(nowpos) #append the current position to list
#turtle.hideturtle()
turtle.setpos(nowpos[0]+10,nowpos[1]) #get the turtle to new postion to write data
turtle.write(data[i], True, align="center") # Write the label of data
turtle.setpos(nowpos[0],nowpos[1]) #return to the previous position
turtle.back(200) #return home
turtle.left(division) # rotate by the specific angle
turtle.home() # return to turtle home
#Connect the ends points of the radar chart
for i in poslist: #
turtle.setpos(i[0],i[1])
#turtle.setpos(i[j],i[j+1])
#turtle.forward(100)
#turtle.home()
#turtle.degree(division)
#turtle.heading()
#turtle.forward(100)
turtle.setpos(poslist[0][0],poslist[0][1])
turtle.home()
#Draw green Dots
for i in range(length):
incval=data[i]
turtle.forward(incval*2)
turtle.dot(15,"green")
nowpos=turtle.pos()
valpos.append(nowpos)
turtle.back(incval*2)
turtle.left(division)
turtle.begin_poly()
turtle.fill(True)
#Fill the green Dots
for i in valpos:
turtle.setpos(int(i[0]),int(i[1]))
turtle.setpos(valpos[0][0],valpos[0][1])
turtle.end_poly()
p = turtle.get_poly()
turtle.register_shape("jpt", p)
turtle.color("Green", "Green")
turtle.begin_fill()
#turtle.p(80)
turtle.end_fill()
turtle.fill(False)
def pox(turtle, x, y, n=10):
origx = turtle.xcor()
origy = turtle.ycor()
turtle.penup()
for i in range(n):
random_location(turtle, x, y, True)
turtle.dot(random.randint(3, 10), random_color())
turtle.setpos(origx, origy)
turtle.pendown()
def drawPoint(self):
'''
Draw a point with initial property
'''
turtle.speed(0)
turtle.penup()
turtle.goto(self.x,self.y)
turtle.dot(size,color)
turtle.penup()
def serpinski(length, depth):
if depth > 1:
t.dot()
if depth == 0:
t.stamp()
else:
serpinski_draw(length, depth)
serpinski_draw(length, depth)
serpinski_draw(length, depth)
def draw_root(self):
"""
draw at the origin a dot
Returns:
self
"""
import turtle
turtle.dot()
return self
def printGrid(g):
window=turtle.Screen()
window.screensize(MAX,MAX)
turtle.hideturtle()
turtle.penup()
for i in range(MAX):
for j in range(MAX):
if g[i][j]==ALIVE:
turtle.goto(i,j)
turtle.dot()
def draw_score():
turtle.goto(-50, MAXY-25)
turtle.dot(50, 'black')
turtle.color('white')
turtle.write(str(s.score), align='center', font=('Arial', 14, 'normal'))
curTime = round(time.time() - s.time, 0)
scoreTime = GAMETIME - curTime
turtle.goto(150, MAXY-25)
turtle.dot(50, 'black')
turtle.color('white')
turtle.write(scoreTime, align='center', font=('Arial', 14, 'normal'))
def TurtlePainting(Image,filtervalue):
pix=Image.load()
#turtle.speed(0)
turtle.tracer(0)
turtle.penup()
width=Image.size[0]
height=Image.size[1]
turtle.setup(width,height+30,-turtle.window_width(),-turtle.window_height())
for i in range(height):
for j in range(width):
if pix[j,i][0]<=filtervalue:
turtle.setpos(j-turtle.window_width()/2,-i+turtle.window_height()/2-10)
turtle.dot(8)
def text_drawer(text, x, y, **colors):
"""
Функция пишет текст легенды в нужных координатах и заданным цветом.
"""
turtle.penup()
turtle.goto(x, y)
turtle.pendown()
turtle.pencolor(colors['r'], colors['g'], colors['b'])
turtle.dot(20)
turtle.penup()
turtle.goto(x + 25, y-10)
turtle.write(text, True, font=('Arial', 12, 'normal'))
def haos_mode(coords=0, numIter=1000):
startPoint = (100,75)
turtle.dot(2)
for i in range(numIter):
randCorner = coords[random.randint(0, 2)]
newPoint = (subtr_coord(startPoint[0], randCorner[0]),
subtr_coord(startPoint[1], randCorner[1]))
startPoint = newPoint
turtle.penup()
turtle.setpos(startPoint[0], startPoint[1])
turtle.pendown()
turtle.dot(2)
def drawCircle(self,position,color):
"""
Dessine un cercle de la couleur et à la position choisie
:param position: position de la grille en (i,j,"joueur")
:param color: couleur du cercle en str ou code hex RGB
"""
i,j,player = position
if player == "you":
turtle.goto(38+j*25,88-25*i)
turtle.dot(20,color)
if player == "enemy":
turtle.goto(-262+(25*j),88-25*i)
turtle.dot(20,color)
def drawPoints(row):
turtle.seth(270)
turtle.color("grey")
for i in range(len(row)):
tempX = row[i][0]
temp = 1.414 * ((tempX * 212.1) / 300)
turtlex = row[i][1] - temp
turtley = row[i][2] - temp
turtle.pu()
turtle.goto(turtlex,turtley)
turtle.pd()
turtle.dot(4,"blue")
turtle.write("p"+format(i,"2d"))
turtle.fd(row[i][2])
def dots(width, height, color, colors, newX, newY, unit = unit): #draws the dots of the lego
turtle.penup()
turtle.color(colors[color])
turtle.pensize(unit/4)
for j in range(height):
turtle.left(90)
turtle.forward(unit/2+unit*j)
turtle.right(90)
turtle.forward(unit/2) #turtle is on first dot of the row
turtle.dot()
for i in range(1,width):
turtle.forward(unit)
turtle.dot()
turtle.goto(newX,newY)
def turtlePrint(board, width, height):
turtle.hideturtle()
turtle.speed(0)
turtle.penup()
turtle.goto(-210, -60)
turtle.pendown()
turtle.goto(20*width-210, -60)
turtle.goto(20*width-210, 20*height-60)
turtle.goto(-210, 20*height-60)
turtle.goto(-210, -60)
turtle.penup()
for y in xrange(height):
for x in xrange(width):
turtle.penup()
turtle.goto(20*x-200,20*y-50)
turtle.pendown()
if board[x][y] is 1:
turtle.pencolor("green")
turtle.dot(10)
turtle.pencolor("black")
elif board[x][y] is 2:
turtle.dot(20)
elif board[x][y] is 3:
turtle.pencolor("red")
turtle.dot(10)
turtle.pencolor("black")
elif board[x][y] is 8:
turtle.pencolor("blue")
turtle.dot()
turtle.pencolor("black")
turtle.exitonclick()
def placeO(self,x,y):
turtle.up()
tx=x*harsha
ty=y*harsha
turtle.goto(tx,ty)
x2=tx-harsha
y2=ty-harsha
turtle.up()
turtle.goto(float(tx+x2)/2,float(ty+y2)/2)
turtle.down()
turtle.dot(harsha)
turtle.up()
turtle.goto(-harsha,-harsha)
turtle.down()
return
def punto(simbolos,identificador,linea): x = obtener_x(identificador,simbolos) y = obtener_y(identificador,simbolos) tx = obtener_tx(identificador, simbolos,linea) ty = obtener_ty(identificador, simbolos,linea) relleno = obtener_color(obtener_relleno(identificador,simbolos,linea)) x = x*44 + tx*44 y = y*44 + ty*44 turtle.penup() #levantar lapiz turtle.setposition(x,y) #ir a posicion turtle.pendown() #bajar lapiz turtle.dot(20,relleno) #dibujar punto
def grafico(funcao,inicio,num,cor):
"""
Faz o gráfico da função a partir do ponto inic.
"""
x = inicio
turtle.pencolor(cor)
turtle.up()
turtle.goto(x,0)
turtle.down()
turtle.dot(6)
for i in range(1,num):
x = funcao(x)
turtle.goto(i,x)
turtle.dot(6)
def point(position):
init_geometrie()
turtle.goto(position.x, position.y)
turtle.dot()
import turtle as tr
import random
tr.colormode(255)
tr.hideturtle()
tr.penup()
tr.setheading(230)
tr.forward(280)
tr.setheading(0)
tr.speed("fastest")
rgb_color = [(251, 251, 248), (254, 240, 252), (212, 251, 242), (198, 12, 32),
(250, 237, 17), (39, 76, 189), (38, 217, 68), (238, 227, 5),
(229, 159, 46), (27, 40, 157)]
scr = tr.Screen()
for i in range(0, 10):
for j in range(0, 10):
tr.pendown()
tr.dot(20, random.choice(rgb_color))
tr.penup()
tr.forward(50)
tr.setheading(90)
tr.forward(50)
tr.setheading(180)
tr.forward(500)
tr.setheading(0)
scr.exitonclick()
def drawDot():
"""Draw a dot of the turtle's pen size"""
t.forward(10)
t.dot()
t.forward(20)
def Draw(self):
turtle.penup()
turtle.goto(self.x, self.y)
turtle.dot()
turtle.write(self.__str__())
turtle.hideturtle()
def alternateBlackAndRed(j):
if j % 2 == 0:
turtle.dot(40, 'black')
else:
turtle.dot(40, 'red')
# 利用while循环绘制矩形
import turtle
x1, y1, x2, y2, x3, y3, x4, y4 = eval(input("x1,y1,x2,y2,x3,y3,x4,y4:"))
count = 0
turtle.showturtle()
turtle.dot(10, "black")
while count < 4:
count += 1
turtle.penup()
turtle.goto(x1, y1)
turtle.pendown()
turtle.goto(x2 * -1, y2)
turtle.goto(x3 * -1, y3 * -1)
turtle.goto(x4, y4 * -1)
turtle.goto(x1, y1)
x1 += 50
y1 += 50
x2 += 50
y2 += 50
x3 += 50
y3 += 50
x4 += 50
y4 += 50
turtle.done()
def draw_point(p):
turtle.goto(p)
turtle.dot(5, random.random(), random.random(), random.random())
def draw_big_point(p):
turtle.goto(p)
turtle.color(0.8, 0.9, 0)
turtle.dot(15)
turtle.write(' ' + str(p))
def draw_all(x,
y,
z,
major,
minor,
angle,
fill=[0, 0, 0],
box=None,
intensity=None,
screen_radius=None):
global ellipsePoints
global drawStars
global lowestApparentMag
global totalIncidentIntensity
global FLARE_POLY_POINTS
mask = (z > 0)
mask = np.logical_and(mask, np.isnan(major) == False)
mask = np.logical_and(mask, np.abs(x) < screen_width() / 2 + major)
mask = np.logical_and(mask, np.abs(y) < screen_height() / 2 + major)
sort_mask = np.argsort(z)[::-1]
mask = mask[sort_mask]
sort_and_mask = sort_mask[mask]
if box:
if mask[box]:
box_x = x[box]
box_y = y[box]
box_maj = major[box]
# box_min = minor[box]
else:
box = None
x = x[sort_and_mask]
y = y[sort_and_mask]
major = major[sort_and_mask]
minor = minor[sort_and_mask]
angle = angle[sort_and_mask]
# mask_map = np.flatnonzero(mask) # Indexes of True's in mask
if _is_array(fill):
fill = fill[sort_and_mask]
if SMART_DRAW:
perimApprox = 2 * np.pi * np.sqrt((major**2 + minor**2) / 2)
points = np.int32(perimApprox / SMART_DRAW_PARAMETER)
else:
points = np.full(len(x), ellipsePoints)
points[points > MAX_POINTS] = MAX_POINTS
flareWidth = 5 # So it doesn't break later, normally this is 0
centre_array = np.array([x, y]).transpose()
if box:
# box 'inner' radius, ie half the width of a side
boxRadius = max(MIN_BOX_WIDTH, box_maj * 1.4 + flareWidth) / 2
turtle.up()
turtle.pencolor([1, 1, 1])
turtle.goto(box_x - boxRadius, box_y - boxRadius)
turtle.down()
turtle.goto(box_x - boxRadius, box_y + boxRadius)
turtle.goto(box_x + boxRadius, box_y + boxRadius)
turtle.goto(box_x + boxRadius, box_y - boxRadius)
turtle.goto(box_x - boxRadius, box_y - boxRadius)
turtle.up() #Draw the box
if flareWidth < 0: return False
if False and (points > 2) and screen_radius:
# screenRadius
# Assuming that the angle puts the major axs through
# the screen centre we can clip points that are outside
# of the screen:
centreRadius = (x**2 + y**2)**(1 / 2)
X = centreRadius - screenRadius
if (X <= -major or points < 10):
# The whole ellipse is on screen.
# or the thing is small anyway
clipAngle = -np.pi / 2
elif (X >= major):
# The whole ellipse is probably off the screen
return
else:
# Do some quik mafs:
Y = minor / major * sqrt(major**2 - X**2)
cosTheta = Y / sqrt(X**2 + Y**2)
clipAngle = -acos(cosTheta)
# 'clipAngle' gives the angle from the minor axis
# that the perimeter clips the screens radius
# +np.pi/2 ==> the centre end of the perimeter is
# just touching the screen radius
# (so the whole thing is probably out of view)
# -np.pi/2 ==> the outer end is just touching,
# ie, almost all of it will be in view.
turtle.up()
if np.any(points > 2) or True:
clipAngle = np.full(len(x), -np.pi / 2)
# Shifts an xy pair relative to major-minor axes
# to the x-y axes of the screen, returns the new xy pair relative
# to the centre of the oval and the screen x-y plane
def localShift(local_angle, index=slice(None)):
# coordAngle -= pi
locX = major[index] / 2 * np.cos(local_angle)
locY = minor[index] / 2 * np.sin(local_angle)
shiftX = locX * np.cos(angle[index] -
np.pi) - locY * np.sin(angle[index] - np.pi)
shiftY = locY * np.cos(angle[index] -
np.pi) + locX * np.sin(angle[index] - np.pi)
return np.array([shiftX, shiftY]).transpose()
# onScreen = True
# Drawn = False
# draw between <angle> and <np.pi - angle>
clipAngle = np.pi / 2 - clipAngle
start = centre_array + localShift(clipAngle)
### NUMPY TAKING OVER FROM HERE
# print(start)
try:
fill = fill.tolist()
except:
pass
for j in range(len(x)):
try:
fill[0][0]
except:
fill_ = fill
else:
try:
fill_ = fill[j]
except:
# print(fill)
raise KeyError
turtle.fillcolor(fill_)
turtle.pencolor(fill_)
s = start[j]
c = centre_array[j]
c_a = clipAngle[j]
# print(s)
turtle.goto(*s)
start_i = 0
end_i = points[j]
if end_i <= 2:
turtle.dot(2)
else:
turtle.begin_fill()
for i in range(start_i, end_i):
tempAngle = 2 * ((end_i / 2) - i) / end_i * c_a
point = c + localShift(tempAngle, j)
turtle.goto(*point)
turtle.end_fill() # Draw the oval
# if not j % 10:
# turtle.write(f'fill: {fill_}')
turtle.up()
# else:
# turtle.up()
# turtle.goto()
return True
def draw_score():
turtle.goto(0, GROUNDY - 25)
turtle.dot(50, GROUNDCOLOR)
turtle.color('red')
turtle.write(score, align='center', font=('Arial', 14, 'normal'))
def focalLength(obj, img):
print("Welcome to the Focal Length Calculator!!")
object_distance = (input("Enter an object distance, in mm: ")
) #input object distance
image_distance = (input("Enter an image distance, in mm: ")
) #input image distance
focal_length = 1 / (float(image_distance)) + 1 / (float(object_distance))
print("Focal Length of your lens is: ", 1 / float((focal_length)), "mm")
line = (1 / float((focal_length)) / 2)
print("Lens:", line, "mm") #distance between f points, placed at origin
turtle.speed(1) #speed to see the turtle in motion
turtle.showturtle()
turtle.screensize(2000, 2000)
#object
turtle.forward(
-float(object_distance)) #to left if positive, to right if negative
turtle.color(str("#bc1818"))
turtle.begin_fill()
turtle.forward(10)
turtle.left(90)
turtle.forward(10)
turtle.left(90)
turtle.forward(10)
turtle.left(90)
turtle.forward(10)
turtle.left(90)
turtle.end_fill()
turtle.color("black")
turtle.penup()
turtle.goto(-float(object_distance), 20)
turtle.write("Object", True, align="center",
font=("Ariel", 10, "normal")) #label above lens axis
turtle.goto(-float(object_distance), 0)
turtle.pendown()
#focalpoint1 -- -120 #have to go to origin for it to be the right distance
turtle.goto(0, 0) #go to origin; "reset"
turtle.forward(-float(1 / focal_length))
turtle.begin_fill()
turtle.dot(9, str("#176825"))
turtle.end_fill()
turtle.penup()
turtle.goto(-float(1 / focal_length), -30)
turtle.write("Focal Point",
True,
align="center",
font=("Ariel", 10, "normal")) #label below lens axis
turtle.color("black")
turtle.goto(-float(1 / focal_length), 0)
turtle.pendown()
#focalpoint2 -- 120 #have to go to the origin for it to be the right distance
turtle.goto(0, 0) #go to origin; "reset"
turtle.goto(float(1 / focal_length), 0)
turtle.begin_fill()
turtle.dot(9, str("#176825"))
turtle.end_fill()
turtle.penup()
turtle.goto(float(1 / focal_length), -30)
turtle.write("Focal Point",
True,
align="center",
font=("Ariel", 10, "normal"))
turtle.color("black")
turtle.goto(float(1 / focal_length), 0)
turtle.pendown()
turtle.goto(0, 0) #go to origin; "reset"
#image
turtle.forward(
float(image_distance)) #to right if positive, to left if negative
turtle.color(str("#183870"))
turtle.begin_fill()
turtle.forward(10)
turtle.left(90)
turtle.forward(10)
turtle.left(90)
turtle.forward(10)
turtle.left(90)
turtle.forward(10)
turtle.left(90)
turtle.end_fill()
turtle.color("black")
turtle.penup()
turtle.goto(float(image_distance), 20)
turtle.write("Image", True, align="center",
font=("Ariel", 10, "normal")) #label above lens axis
turtle.goto(float(image_distance), 0)
turtle.pendown()
turtle.goto(0, 0)
#lens
turtle.color(str("#5e5e5e"))
turtle.goto(0, 100) #to make the vertical line
turtle.goto(0, -100) #to make the vertical line
turtle.forward(480)
turtle.left(90)
#ESPACIO
turtle.up()
turtle.goto(-300, 0)
turtle.down()
#LETRA I
turtle.speed()
turtle.left(90)
turtle.forward(300)
turtle.up()
turtle.goto(-300, 400)
turtle.down()
turtle.dot(15, 'red')
turtle.up()
turtle.goto(-300, 0)
turtle.down()
#ESPACIO
turtle.up()
turtle.goto(0, 0)
turtle.down()
#LETRA E
turtle.shape('turtle')
turtle.pencolor('red')
turtle.left(-60)
turtle.forward(250)
turtle.left(180)
'''
CSC101 Lab 9
Part 4: Points in circle
Idrissa Jalloh
Franklin Nuth
March 31 2017
'''
import turtle
import random
import mytools
turtle.bgcolor('darkgray') # set background color
# PROGRAM STARTS HERE
xc, yc = eval(input("Please enter the x and y of your center circle!: "))
r = eval(input("Please enter the radius of your circle!: "))
turtle.tracer(False) # Animation Off
for i in range(2000):
x, y = mytools.random_location()
mytools.move(x, y) # make turtle jump to location (x,y)
if mytools.is_point_in_circle(xc, yc, r, x, y):
turtle.dot(10, 'blue')
else:
turtle.dot(5, 'orange')
turtle.update() # Show all points at once
turtle.done()
def draw(self):
tt.up()
tt.setpos(Graphics.shifted(self.center))
tt.dot(2 * self.radius, self.color)
toadd *= points[i][index]
value += toadd
return value
#Get ready to put the points
turtle.pencolor((1.0, 0.0, 0.0))
turtle.width(10)
#Put the points
for j in points:
turtle.up()
turtle.setpos(j[0], j[1])
turtle.down()
turtle.dot()
#Put back the original settings
turtle.width(1)
turtle.pencolor((0.0, 0.0, 0.0))
turtle.up()
turtle.setpos(points[0][0], points[0][1])
turtle.down()
turtle.speed(0)
#Finally, draw the curve!
t = 0.000
while t < 1.00:
t += 0.01
turtle.setpos(int(B(points, t, 0)), int(B(points, t, 1)))
def display(self,y_max=200):
#Sets the x xcalar for later use (not really needed)
xscalar = 110
#Sets the scaling for the Y axis so the graph is spaced relative to the high population, rather than being a set scaling
self.yscalar = (y_max+300)/self.highestPopulation
#Basically just finds the highest population and rounds it to 1 sig fig so it can display the spacing increments on the graph.
#If the turtle is at the origin (so bassically if this is the first time the turtle has run) set up the graph
if(turtle.xcor() == 0 and turtle.ycor() == 0):
#Setting up turtle settings
turtle.color("black")
turtle.hideturtle()
turtle.speed(0)
#Drwa the y axis
turtle.penup()
turtle.goto(-300,-300)
turtle.pendown()
turtle.goto(-300,y_max)
#Draw the X axis
turtle.penup()
turtle.goto(250,-300)
turtle.pendown()
turtle.goto(-300,-300)
turtle.penup()
#Write titles for the Axes
turtle.goto(-450,0)
turtle.write("Population (people)")
turtle.goto(0,-350)
turtle.write("Date (years)")
#Draw each increment on the X axis
for x in range(1,6):
turtle.penup()
turtle.goto(-310+xscalar*x,-320)
turtle.write("201{}".format(x))
turtle.goto(-300+xscalar*x,-300)
turtle.pendown()
turtle.goto(-300+xscalar*x,-285)
#Draw each increment on the Y axis
for x in range(1,5):
turtle.penup()
turtle.goto(-300,-300+(300+y_max)/4*x)
turtle.pendown()
turtle.goto(turtle.xcor()+20,turtle.ycor())
turtle.penup()
turtle.goto(turtle.xcor()-70,turtle.ycor()-10)
turtle.write(self.highestPopulation/4*x)
#Change the color based on what it initialized as
turtle.color(self.color)
turtle.penup()
for x in range(0,6):
#Draww all 6 points, moving over 110 every time, and placing the y Axis spot relative to the Y scalar (so highest is on top)
turtle.goto(x*xscalar-300,self.population[x]*self.yscalar-300)
turtle.dot(6,self.color)
#Draw the Line Based on the equation
turtle.goto(-300,self.b*self.yscalar-300)
turtle.pendown()
turtle.goto(250,(self.b+5*self.m)*self.yscalar-300)
turtle.penup()
#Actually displays the Equation
turtle.goto(turtle.xcor()+10,turtle.ycor())
turtle.write("y={0}x+{1}".format(float(self.m),float(self.b)))
#Displays the name either at the set height or a bit above it so the state and county doesn't overlap
turtle.goto(-300,240+20*self.extraDist)
turtle.write(self.name)
def drawDot():
tt.reset()
# hide turtle
tt.ht()
tt.dot(20, 'Green')
a = 0.2
for i in range(120):
if 0 <= i < 30 or 60 <= i < 90:
a = a + 0.02
t.speed(0)
t.lt(3) # 向左转3度
t.fd(a) # 向前走a的步长
else:
a = a - 0.02
t.speed(0)
t.lt(3)
t.fd(a)
t.end_fill()
t.pu()
t.goto(-20, 121)
t.dot(5, 'white')
t.pu()
t.goto(21, 108)
# t.dot(5, 'red')
t.color('black', 'black')
t.begin_fill()
a = 0.2
for i in range(120):
if 0 <= i < 30 or 60 <= i < 90:
a = a + 0.02
t.speed(0)
t.lt(3) # 向左转3度
t.fd(a) # 向前走a的步长
else:
a = a - 0.02
def pickRandomDot(colors):
turtle.dot(40, colors[random.randrange(0, len(colors))])
# coding=utf-8
import turtle
i = 0
while True:
turtle.circle(i + 50)
i += 10
turtle.dot(5, "green")
def decision_five_left(turtle, direction):
correct_decision_four(turtle)
turtle.color("purple")
turtle.dot()
turtle.right(90)
turtle.forward(30)
turtle.dot()
turtle.width(3)
turtle.penup()
turtle.right(90)
turtle.forward(50)
turtle.left(180)
for i in range(10):
turtle.color("pink")
turtle.pendown()
turtle.forward(2)
turtle.penup()
turtle.forward(10)
turtle.goto(40, 220)
turtle.color("purple")
turtle.width(10)
turtle.pendown()
turtle.dot()
if direction == "left":
turtle.dot()
turtle.color("purple")
turtle.forward(55)
turtle.dot()
good_choice(turtle)
#turtle now at 40, 165
elif direction == "right":
turtle.color("red")
turtle.right(180)
turtle.forward(55)
turtle.dot()
yikes(turtle)
from PIL import Image
img = Image.open("ball_image_32x32.png")
import turtle
turtle.colormode(255)
# trying to speed it up
turtle.hideturtle()
turtle.speed("fastest")
for i in range(img.width):
for j in range(img.height):
t = (i, j)
color = img.getpixel(t)
turtle.setpos(t)
turtle.dot(2, color)
ts = datetime.utcfromtimestamp(ts).strftime('%H:%M:%S on %Y-%m-%d')
iss_lat = iss_now['iss_position']['latitude']
iss_lon = iss_now['iss_position']['longitude']
print('As of ' + ts + ', the ISS is at (' + str(iss_lat) + ', ' +
str(iss_lon) + ')')
# Part D
payload = {'lat': 39.768518, 'lon': -86.158092}
iss_pass = requests.get('http://api.open-notify.org/iss-pass.json',
params=payload).json()
ts2 = iss_pass['response'][0]['risetime']
ts2 = datetime.utcfromtimestamp(ts2).strftime('%H:%M:%S on %Y-%m-%d')
print('The next time the ISS will pass over Indianapolis, IN is ' + ts2)
# Part C
screen = turtle.Screen()
screen.setup(720, 360)
screen.bgpic('map.gif')
screen.addshape('iss.gif')
turtle.color('white')
turtle.penup()
turtle.setposition(-86.158092 * 2, 39.768518 * 2)
turtle.dot()
turtle.dot(5, "yellow")
turtle.setheading(45)
turtle.forward(5)
turtle.write(ts2, True, align="left")
turtle.setposition(float(iss_lon) * 2, float(iss_lat) * 2)
turtle.shape('iss.gif')
turtle.done()
def clickFn(x, y):
t.goto(x, y)
t.dot(20, 'Purple')
print([x, y])
coords.append([x, y])
print([coords])
import turtle
positionHuman = (0.00, 86.00)
positionLion1 = (-150.00, 0.00)
positionLion2 = (150.00, 0.00)
positionLion3 = (0.00, 260.00)
escapeDregree = 240
turtle.pensize(3)
for x in range(100):
turtle.color("black")
turtle.penup()
turtle.goto(positionHuman)
turtle.dot(2, "yellow")
turtle.pendown()
turtle.setheading(escapeDregree)
lenthLion1 = turtle.distance(positionLion1)
lenthLion2 = turtle.distance(positionLion2)
if (x >= 2):
if (lenthLion1 > lenthLion2):
escapeDregree = escapeDregree - 20
turtle.fd(10)
print("1", escapeDregree)
else:
escapeDregree = escapeDregree + 20
turtle.fd(10)
print("2", escapeDregree)
else:
turtle.fd(10)
print("3", escapeDregree)
def draw_offline(center, color):
tt.up()
tt.setpos(Graphics.shifted(center))
tt.dot(2 * GlobalSetup.BALL_RADIUS, color)
#May 24, 2019
# This program draws the constellation for Orion
import turtle
turtle.setup(500,500)
# prevents turtle fom drawing lines until specified to draw lines
turtle.penup()
turtle.hideturtle()
# Defining the star coordinates for Betelgeuese
bet_X = -70
bet_Y = 200
turtle.goto(bet_X, bet_Y)
turtle.dot(5) #Draws the dot for the star
turtle.write('Betegeuse') #Writes the star name
# Defining the star coordinates for Meissa
mei_X = 80
mei_Y = 180
turtle.goto(mei_X, mei_Y)
turtle.dot(5) #Draws the dot for the star
turtle.write('Meissa') #Writes the star name
# Defining the star coordinates for Alnitak
aln_X = -40
aln_Y = -20
turtle.goto(aln_X, aln_Y)
turtle.dot(5) #Draws the dot for the star
turtle.write('Alnitak') #Writes the star name
# web1 = "https://www.google.com/fiance/historical?output=csv&q="
# var2 = "etsy"
# web3 = web1 + var2
# page1 = urllib.request.urlopen(web3)
turtle.hideturtle()
turtle.setworldcoordinates(0, 0, 500, 500) #####this is significant!!!!
filename = open('all_day.csv', 'r')
list1 = filename.readlines()
close = []
date = []
i = 1
while i < len(list1):
a = list1[i]
alist = a.split(",")
close.append(alist[4])
date.append(alist[0])
i = i + 1
i = len(close)
pointOneX = 0
pointOneY = 0
while i >= 0:
pointOneX = pointOneX + 10
pointOneY = 10 * (float(close[i - 1]))
turtle.goto(pointOneX, pointOneY)
turtle.dot(2)
i = i - 1
turtle.exitonclick()
turtle.goto(0, 200)
turtle.right(90)
turtle.pendown()
turtle.forward(400)
turtle.home()
# #print x axis
turtle.penup()
turtle.goto(-200, 0)
turtle.pendown()
turtle.forward(400)
turtle.home()
turtle.penup()
turtle.goto(x, y)
turtle.pendown()
turtle.dot("red")
turtle.write(str(turtle.position()) + " " + str(radius) + " (c1)")
turtle.penup()
turtle.goto(x, y - radius)
turtle.pendown()
turtle.circle(radius)
# print circle 2
turtle.penup()
turtle.goto(x2, y2)
turtle.pendown()
turtle.dot("red")
turtle.write(str(turtle.position()) + " " + str(radius2) + " (c2)")
turtle.penup()
import turtle turtle.dot(30) turtle.up() turtle.right(90) turtle.forward(200) turtle.left(90) turtle.down() turtle.circle(200) turtle.up() turtle.left(90) turtle.forward(200) turtle.left(90) turtle.forward(100) turtle.left(90) turtle.down() turtle.circle(100, 180) turtle.up() turtle.forward(100) turtle.dot(30) turtle.left(90) turtle.forward(200) turtle.dot(30)
def visualizeQuakes(k, r):
"""(int, int) -> None
Top level function for accessing and analyzing earthquake data from USGS
website.
Calls readeqf, createCentroids, and createClusters, using parameter
k number of clusters and r number of repetitions to run the k-means cluster
analysis algorithm. Uses turtle module to graphically plot the M5 or
greater earthquakes within the past month on a world map.
Different queries can be plotted by altering the url in readeqf as per the
USGS API. Color list currently permits only k values less than or equal
to 30.
Note 2: Map supplied in the original spec is a Mercator and plots
incorrectly. Use the included Equirectangular Projection instead.
Returns None.
> visualizeQuakes(6, 50)
<Draws Turtle Graphics map with 6 clusters.>
"""
eq_dict = readeqf()
centroids = createCentroids(k, eq_dict)
clusters = createClusters(k, centroids, eq_dict, r)
w = 1800 #Window width.
h = 900 #Window height.
bg_pic = "better_worldmap1800_900.gif"
t.setup(width=w, height=h)
t.bgpic(bg_pic)
t.speed("fastest")
t.hideturtle()
t.up()
w_factor = ((w / 2) / 180)
h_factor = ((h / 2) / 90)
color_list = ["dark red", "dark green", "dark blue", "dark orange",
"dark orchid", "dark goldenrod", "dark violet",
"pink", "magenta", "sky blue", "plum", "dark salmon",
"goldenrod", "chartreuse", "dark sea green", "cornsilk",
"dark olive green", "bisque", "blanched almond",
"dark cyan", "royal blue", "papaya whip", "peach puff",
"misty rose", "mint cream", "lavender blush", "hot pink",
"dark khaki", "cornflower blue", "chocolate"]
for cluster_index in range(k):
t.color(color_list[cluster_index])
for akey in clusters[cluster_index]:
lon = (eq_dict[akey][0]) * w_factor
lat = (eq_dict[akey][1]) * h_factor
t.goto(lon, lat)
t.dot()
return None
