def _static_drawables(self):
"""Returns GraphicsObjects that only need to be drawn once."""
ground = g.Line(g.Point(0, GROUND_Y), g.Point(WIDTH, GROUND_Y))
target = g.Line(g.Point(WIDTH/2 - 50, TARGET_Y),
g.Point(WIDTH/2 + 50, TARGET_Y))
target.setOutline("red")
return ground, target
def draw_house():
house = gr.Rectangle(gr.Point(20, 210), gr.Point(180, 350))
house.setOutline('gray')
house.setFill("gray")
roof = gr.Polygon(gr.Point(20, 210), gr.Point(100, 160), gr.Point(180, 210))
roof.setFill('black')
roof.setOutline('black')
windows = gr.Rectangle(gr.Point(65, 250), gr.Point(135, 310))
windows.setFill('lightblue')
windows.setOutline('black')
line1 = gr.Line(gr.Point(100, 250), gr.Point(100, 310))
line1.setWidth(1)
line1.setOutline('black')
line2 = gr.Line(gr.Point(65, 280), gr.Point(135, 280))
line2.setWidth(1)
line2.setOutline('black')
house.draw(window)
roof.draw(window)
windows.draw(window)
line1.draw(window)
line2.draw(window)
def grid(m): # m - Def the distance between 2 lines
e = 0
for i in range(0, int((Sx) / (m / Factor)) + 1):
l = gfx.Line(gfx.Point((e / Factor) + (Sx / 2), 0),
gfx.Point((e / Factor) + (Sx / 2), Sy))
l.setFill(gfx.color_rgb(Color3[0], Color3[1], Color3[2]))
l.draw(Win)
l = gfx.Line(gfx.Point((Sx / 2) - (e / Factor), 0),
gfx.Point(Sx / 2 - (e / Factor), Sy))
l.setFill(gfx.color_rgb(Color3[0], Color3[1], Color3[2]))
l.draw(Win)
e += m / 2
e = 0
for i in range(0, int((Sy) / (m / Factor)) + 1):
l = gfx.Line(gfx.Point(0, (e / Factor) + (Sy / 2)),
gfx.Point(Sx, (e / Factor) + (Sy / 2)))
l.setFill(gfx.color_rgb(Color3[0], Color3[1], Color3[2]))
l.draw(Win)
l = gfx.Line(gfx.Point(0, (Sy / 2) - (e / Factor)),
gfx.Point(Sx, (Sy / 2) - (e / Factor)))
l.setFill(gfx.color_rgb(Color3[0], Color3[1], Color3[2]))
l.draw(Win)
e += m / 2
def draw(airport, makegatebuilding, coords, numrunways, filenamenum = None):
win = graphics.GraphWin('airport', 600, 600*(airport.bounds[3] - airport.bounds[1])/(airport.bounds[2] - airport.bounds[0])) # give title and dimensions
win.setCoords(airport.bounds[0] - 10, airport.bounds[1] - 10, airport.bounds[2] + 10, airport.bounds[3] + 10)
airportgraphic = graphics.Polygon(map(lambda (x, y): graphics.Point(x,y), airport.exterior.coords))
airportgraphic.draw(win)
for i in range(0, numrunways):
x = coords[i*5 + 0]
y = coords[i*5 + 1]
length = coords[i*5 + 2]
width = coords[i*5 + 3]/100
angle = coords[i*5 + 4]/1000
colour = "black"
x1 = x - width * math.sin(angle) / 2 + length * math.cos(angle) / 2
y1 = y + width * math.cos(angle) / 2 + length * math.sin(angle) / 2
x2 = x + width * math.sin(angle) / 2 - length * math.cos(angle) / 2
y2 = y - width * math.cos(angle) / 2 - length * math.sin(angle) / 2
x3 = x + width * math.sin(angle) / 2 + length * math.cos(angle) / 2
y3 = y - width * math.cos(angle) / 2 + length * math.sin(angle) / 2
x4 = x - width * math.sin(angle) / 2 - length * math.cos(angle) / 2
y4 = y + width * math.cos(angle) / 2 - length * math.sin(angle) / 2
runway1 = graphics.Line(graphics.Point(x1, y1), graphics.Point(x2, y2))
runway1.setOutline(colour)
runway1.draw(win)
runway2 = graphics.Line(graphics.Point(x2, y2), graphics.Point(x3, y3))
runway2.setOutline(colour)
runway2.draw(win)
runway3 = graphics.Line(graphics.Point(x3, y3), graphics.Point(x4, y4))
runway3.setOutline(colour)
runway3.draw(win)
runway4 = graphics.Line(graphics.Point(x4, y4), graphics.Point(x1, y1))
runway4.setOutline(colour)
runway4.draw(win)
gatespolygon = makegatebuilding(coords[numrunways*5:])
try:
gatebuildings = gatespolygon.geoms
except AttributeError:
gatebuildings = [gatespolygon]
for gatebuilding in gatebuildings:
if gatebuilding:
gatebuildinggraphic = graphics.Polygon(map(lambda (x, y): graphics.Point(x,y), gatebuilding.exterior.coords))
gatebuildinggraphic.draw(win)
for interior in gatebuilding.interiors:
gatebuildinggraphic = graphics.Polygon(map(lambda (x, y): graphics.Point(x,y), interior.coords))
gatebuildinggraphic.draw(win)
if filenamenum is not None:
win.postscript(file="output/step-%05d.ps" % filenamenum, colormode='color')
else:
win.getMouse()
win.close()
def fractal_rectangle(
A,
B,
C,
D,
deep=10
): # A,B,C,D - кортежи (пары чисел через запятую) с координатами точек квадрата, deep - глубина рекурсии, в данном случае - 10
if deep < 1: # Проверяем сколько осталось нарисовать прямоугольников. Если 0, то выходим из функции.
return
gr.Line(gr.Point(*A), gr.Point(*B)).draw(
window
) # *A - функция разворачивания кортежа - использует значения кортежа A[0], A[1], A[2] и т.д.
gr.Line(gr.Point(*B), gr.Point(*C)).draw(window)
gr.Line(gr.Point(*C), gr.Point(*D)).draw(window)
gr.Line(gr.Point(*D), gr.Point(*A)).draw(window)
# или тоже самое, но короче:
# for M,N in (A,B), (B,C), (C,D), (D,A):
# gr.Line(gr.Point(*M), gr.Point(*N)).draw(window)
A1 = (A[0] * (1 - alpha) + B[0] * alpha, A[1] * (1 - alpha) + B[1] * alpha
) # Вычисляем координаты новых точек
B1 = (B[0] * (1 - alpha) + C[0] * alpha, B[1] * (1 - alpha) + C[1] * alpha)
C1 = (C[0] * (1 - alpha) + D[0] * alpha, C[1] * (1 - alpha) + D[1] * alpha)
D1 = (D[0] * (1 - alpha) + A[0] * alpha, D[1] * (1 - alpha) + A[1] * alpha)
fractal_rectangle(A1, B1, C1, D1, deep - 1)
def die(x,y,window): p1 = graphics.Point(x-75,y-75) p2 = graphics.Point(x+75,y+75) die = graphics.Rectangle(p1,p2) die.draw(window) pl1 = graphics.Point(x-25,y-125) line1 = graphics.Line(p1,pl1) line1.draw(window) p1l2 = graphics.Point(x+75,y-75) p2l2 = graphics.Point(x+125,y-125) line2 = graphics.Line(p1l2,p2l2) line2.draw(window) p1l3 = graphics.Point(x+75,y+75) p2l3 = graphics.Point(x+125,y+25) line3 = graphics.Line(p1l3,p2l3) line3.draw(window) p1l4 = graphics.Point(x-25,y-125) p2l4 = graphics.Point(x+125,y-125) line4 = graphics.Line(p1l4,p2l4) line4.draw(window) p1l5 = graphics.Point(x+125,y-125) p2l5 = graphics.Point(x+125,y+25) line5 = graphics.Line(p1l5,p2l5) line5.draw(window)
def bird(x1, y1):
rightWing = g.Line(g.Point(x1 - 15, y1 - 15), g.Point(x1, y1))
leftWing = g.Line(g.Point(x1, y1), g.Point(x1 + 15, y1 - 15))
rightWing.setFill("blue")
leftWing.setFill("blue")
rightWing.draw(win)
leftWing.draw(win)
def draw_house():
walls = gr.Polygon(gr.Point(200, 300), gr.Point(400, 300),
gr.Point(400, 450), gr.Point(200, 450))
walls.setFill('firebrick')
walls.setOutline('saddlebrown')
walls.setWidth(2)
big_window = gr.Rectangle(gr.Point(250, 325), gr.Point(350, 400))
big_window.setFill('lightcyan')
big_window.setOutline('saddlebrown')
big_window.setWidth(2)
reshetka1 = gr.Line(gr.Point(300, 325), gr.Point(300, 400))
resetka2 = gr.Line(gr.Point(250, 350), gr.Point(350, 350))
roof = gr.Polygon(gr.Point(185, 315), gr.Point(300, 150),
gr.Point(415, 315))
roof.setOutline('saddlebrown')
roof.setWidth(2)
roof.setFill('peru')
small_window = gr.Circle(gr.Point(300, 250), 20)
small_window.setOutline('saddlebrown')
small_window.setWidth(2)
small_window.setFill('lightcyan')
walls.draw(window)
roof.draw(window)
big_window.draw(window)
reshetka1.draw(window)
resetka2.draw(window)
small_window.draw(window)
def draw_house():
house_body = gr.Rectangle(gr.Point(200, 220), gr.Point(400, 420))
house_body.setFill(gr.color_rgb(200, 180, 140))
house_body.setOutline(gr.color_rgb(160, 140, 100))
house_body.setWidth(5)
house_body.draw(window)
house_roof = gr.Polygon(gr.Point(190, 220), gr.Point(300, 110),
gr.Point(410, 220))
house_roof.setFill(gr.color_rgb(140, 25, 30))
house_roof.setOutline(gr.color_rgb(100, 5, 10))
house_roof.setWidth(5)
house_roof.draw(window)
house_window = gr.Rectangle(gr.Point(250, 260), gr.Point(350, 360))
house_window.setFill(gr.color_rgb(132, 205, 255))
house_window.setWidth(5)
house_window.draw(window)
line1 = gr.Line(gr.Point(300, 260), gr.Point(300, 360))
line2 = gr.Line(gr.Point(250, 310), gr.Point(350, 310))
line1.setWidth(5)
line2.setWidth(5)
line1.draw(window)
line2.draw(window)
def five_click_stick_figure():
mouse1 = win.getMouse()
mouse2 = win.getMouse()
radius = math.sqrt((mouse1.getX() - mouse2.getX())**2 +
(mouse1.getY() - mouse2.getY())**2)
head = g.Circle(g.Point(mouse1.getX(), mouse1.getY()), radius)
head.draw(win)
mouse3 = win.getMouse()
body = g.Line(g.Point(mouse1.getX(),
mouse1.getY() + radius),
g.Point(mouse1.getX(), mouse3.getY()))
body.draw(win)
symmetry = mouse1.getX()
mouse4 = win.getMouse()
arm_distance = (symmetry - mouse4.getX()) * 2
arms = g.Line(g.Point(mouse4.getX(), mouse4.getY()),
g.Point(mouse4.getX() + arm_distance, mouse4.getY()))
arms.draw(win)
mouse5 = win.getMouse()
leg_distance = (symmetry - mouse5.getX()) * 2
leg_l = g.Line(g.Point(mouse1.getX(), mouse3.getY()),
g.Point(mouse5.getX(), mouse5.getY()))
leg_l.draw(win)
leg_r = g.Line(g.Point(mouse1.getX(), mouse3.getY()),
g.Point(mouse5.getX() + leg_distance, mouse5.getY()))
leg_r.draw(win)
def draw_caterpillar():
caterpillar1 = gr.Circle(gr.Point(20, 480), 20)
caterpillar2 = gr.Circle(gr.Point(60, 480), 20)
caterpillar3 = gr.Circle(gr.Point(100, 480), 20)
caterpillar4 = gr.Circle(gr.Point(140, 480), 20)
caterpillar5 = gr.Circle(gr.Point(180, 480), 20)
caterpillar = gr.Circle(gr.Point(190, 440), 25)
caterpillarx1 = gr.Line(gr.Point(190, 415), gr.Point(205, 390))
caterpillarx2 = gr.Line(gr.Point(190, 415), gr.Point(175, 390))
caterpillarx1 .setWidth(4)
caterpillarx2 .setWidth(4)
caterpillar1.setFill('green')
caterpillar2.setFill('green')
caterpillar3.setFill('green')
caterpillar4.setFill('green')
caterpillar5.setFill('green')
caterpillar.setFill('green')
caterpillarx1 .setFill('black')
caterpillarx2 .setFill('black')
caterpillar1.draw(window)
caterpillar2.draw(window)
caterpillar3.draw(window)
caterpillar4.draw(window)
caterpillar5.draw(window)
caterpillar.draw(window)
caterpillarx1 .draw(window)
caterpillarx2.draw(window)
def testBox(width, height, zoom, t_scale):
win = g.GraphWin('Test', width, height)
head = g.Circle(g.Point(100, 100), 25)
head.draw(win)
# Make the bar to measure the time of the video
T_SCALE_POS = (width * .1, height * .9)
NUM_TICKS = 10
TICK_SEMI_HEIGHT = 5
t_scale_segs = [
g.Line(g.Point(T_SCALE_POS[0], T_SCALE_POS[1]),
g.Point(width - T_SCALE_POS[0], T_SCALE_POS[1]))
]
t_scale_segs += [
g.Line(
g.Point(T_SCALE_POS[0] + i * (width * .8 / NUM_TICKS),
T_SCALE_POS[1] - TICK_SEMI_HEIGHT),
g.Point(T_SCALE_POS[0] + i * (width * .8 / NUM_TICKS),
T_SCALE_POS[1] + TICK_SEMI_HEIGHT))
for i in range(NUM_TICKS + 1)
]
for seg in t_scale_segs:
seg.draw(win)
#t_scale_segs[0].setWidth(1)
#t_scale_segs[0].draw(win)
return win
def render_update(self, action):
pt = point_from(self._obs)
move_to(self._g_obs, self._g_obs.getCenter(), pt)
goal_pt = point_from(self.ac_goal_pos)
move_to(self._g_targ, self._g_targ.getCenter(), goal_pt)
if len(self._g_lines) > 0:
start_pt = self._g_lines[-1].getP2()
else:
start_pt = pt
self._g_lines.append(gr.Line(start_pt, pt))
self._g_lines[-1].setFill("red")
self._g_lines[-1].setWidth(1)
self._g_lines[-1].draw(self._win)
# predicted trajectory rendering
if 'results/trajectory/obs' in action.leaf_keys():
# clear
for line in self._curr_trajectory:
line.undraw()
self._curr_trajectory = []
# refill
idx = action.results.order[0, 0]
trajectory = action.results.trajectory.obs[0, idx]
for i in range(trajectory.shape[0] - 1):
line = gr.Line(point_from(trajectory[i]),
point_from(trajectory[i + 1]))
line.setFill("green")
line.setWidth(1)
line.draw(self._win)
self._curr_trajectory.append(line)
def ptMoneyMap():
MainWin = graphics.GraphWin("MoneyMap", 800, 700)
MoneyList = GetMoneyList(100, 0.1, 18)
line = graphics.Line(graphics.Point(80, 20), graphics.Point(80, 600))
line.draw(MainWin)
for y in range(600, 30, -20):
kline = graphics.Line(graphics.Point(80, y), graphics.Point(88, y))
kline.draw(MainWin)
txt = graphics.Text(graphics.Point(60, y), str(600 - y))
txt.draw(MainWin)
x = 100
YearNum = 0
for CurrentMoney in MoneyList:
StartPoint = graphics.Point(x, 600 - CurrentMoney)
x += 15
YearTxt = graphics.Text(graphics.Point(x, 610), str(YearNum) + "年")
YearNum += 1
YearTxt.draw(MainWin)
x += 15
EndPoint = graphics.Point(x, 600)
cRectangle = graphics.Rectangle(StartPoint, EndPoint)
cRectangle.setFill("green")
cRectangle.draw(MainWin)
x += 5
for i in range(10):
pt = MainWin.getMouse()
print("clicked x:", pt.getX(), ",y:", pt.getY())
def drawBoard(self):
# window object
self.win_ = graph.GraphWin("Board",\
(self.board_edge_[1] - self.board_edge_[0]) * 1.25,\
(self.board_edge_[3]- self.board_edge_[2]) * 1.25)
# set color of background of window
self.win_.setBackground(graph.color_rgb(240, 250, 15))
# x,y-coordinates of grids
self.x_pos_ = np.linspace(self.board_edge_[0], self.board_edge_[1],
self.n_col_)
self.y_pos_ = np.linspace(self.board_edge_[2], self.board_edge_[3],
self.n_row_)
# draw grid of chessboard
for x in self.x_pos_:
p1 = graph.Point(x, self.board_edge_[2])
p2 = graph.Point(x, self.board_edge_[3])
line = graph.Line(p1, p2)
# set edge bold
if x == self.board_edge_[0] or x == self.board_edge_[1]:
line.setWidth(2.5)
line.draw(self.win_)
for y in self.y_pos_:
p1 = graph.Point(self.board_edge_[0], y)
p2 = graph.Point(self.board_edge_[1], y)
line = graph.Line(p1, p2)
# set edge bold
if y == self.board_edge_[2] or y == self.board_edge_[3]:
line.setWidth(2.5)
line.draw(self.win_)
def axis(x, y):
l1 = gfx.Line(gfx.Point(x / 2, 0), gfx.Point(x / 2, x))
l1.setFill(gfx.color_rgb(Color2[0], Color2[1], Color2[2]))
l1.draw(Win)
l2 = gfx.Line(gfx.Point(x, y / 2), gfx.Point(1, y / 2))
l2.setFill(gfx.color_rgb(Color2[0], Color2[1], Color2[2]))
l2.draw(Win)
def fractal_rectangle(A, B, C, D, deep=10):
if deep < 1:
return
gr.Line(gr.Point(*A), gr.Point(*B)).draw(window)
gr.Line(gr.Point(*B), gr.Point(*C)).draw(window)
gr.Line(gr.Point(*C), gr.Point(*D)).draw(window)
gr.Line(gr.Point(*D), gr.Point(*A)).draw(window)
def draw_icecream(win):
line1 = gr.Line(gr.Point(270, 600), gr.Point(220, 650))
line2 = gr.Line(gr.Point(220, 650), gr.Point(250, 670))
line3 = gr.Line(gr.Point(250, 670), gr.Point(270, 600))
line1.draw(win)
line2.draw(win)
line3.draw(win)
def brow(x, y):
eyebrow1 = gr.Line(gr.Point(x - 15, y - 30), gr.Point(x - 40, y - 37))
eyebrow2 = gr.Line(gr.Point(x + 10, y - 40), gr.Point(x + 40, y - 50))
eyebrow1.setWidth(10)
eyebrow2.setWidth(10)
eyebrow1.setOutline('black')
eyebrow2.setOutline('black')
eyebrow1.draw(window)
eyebrow2.draw(window)
def drawGrid(win):
for i in range(0, WIDTH, 20):
ln = g.Line(g.Point(i, 0), g.Point(i, HEIGHT))
ln.setOutline(g.color_rgb(200, 200, 255))
ln.draw(win)
for i in range(0, HEIGHT, 20):
ln = g.Line(g.Point(0, i), g.Point(WIDTH, i))
ln.setOutline(g.color_rgb(200, 200, 255))
ln.draw(win)
def background():
sky = gr.Line(gr.Point(0, 125), gr.Point(500, 125))
sky.setWidth(250)
sky.setFill('Blue')
sky.draw(window)
grass = gr.Line(gr.Point(0, 375), gr.Point(500, 375))
grass.setWidth(250)
grass.setFill('Green')
grass.draw(window)
def wind_line():
'''решетки окна'''
wind_line1 = gr.Line(gr.Point(w / 3, h / 2 - 40),
gr.Point(w / 3, h / 2 + 40))
wind_line2 = gr.Line(gr.Point(w / 3 - 40, h / 2),
gr.Point(w / 3 + 40, h / 2))
wind_line1.setWidth(5)
wind_line2.setWidth(5)
wind_line1.draw(window)
wind_line2.draw(window)
def buildRoof():
leftRoofA = houseTL
leftRoofB = g.Point(250, 100)
leftRoof = g.Line(leftRoofA, leftRoofB)
leftRoof.draw(win)
rightRoofA = leftRoofB
rightRoofB = g.Point(450, 150)
rightRoof = g.Line(rightRoofA, rightRoofB)
rightRoof.draw(win)
def draw_sun_eyebrows():
eyebrow1 = gr.Line(gr.Point(210, 242), gr.Point(245, 262))
eyebrow2 = gr.Line(gr.Point(255, 265), gr.Point(290, 245))
eyebrow1.setWidth(10)
eyebrow2.setWidth(10)
eyebrow1.setOutline('black')
eyebrow2.setOutline('black')
eyebrow1.draw(window)
eyebrow2.draw(window)
def createGameBackground():
win = gr.GraphWin("Flappy Mule", 400, 600)
win.setBackground('steelblue1')
#Here I will draw Miller Library, the backdrop for my game
base = gr.Rectangle(gr.Point(10, 600), gr.Point(390, 500))
left_rect = gr.Rectangle(gr.Point(10, 600), gr.Point(90, 500))
right_rect = gr.Rectangle(gr.Point(310, 600), gr.Point(390, 500))
right_tri = gr.Polygon(gr.Point(300, 500), gr.Point(400, 500),
gr.Point(350, 450))
left_tri = gr.Polygon(gr.Point(0, 500), gr.Point(100, 500),
gr.Point(50, 450))
mid_rect = gr.Rectangle(gr.Point(110, 600), gr.Point(290, 425))
mid_tri = gr.Polygon(gr.Point(120, 500), gr.Point(280, 500),
gr.Point(200, 450))
pillar1 = gr.Rectangle(gr.Point(120, 580), gr.Point(130, 500))
pillar2 = gr.Rectangle(gr.Point(150, 580), gr.Point(160, 500))
pillar3 = gr.Rectangle(gr.Point(180, 580), gr.Point(190, 500))
pillar4 = gr.Rectangle(gr.Point(210, 580), gr.Point(220, 500))
pillar5 = gr.Rectangle(gr.Point(240, 580), gr.Point(250, 500))
pillar6 = gr.Rectangle(gr.Point(270, 580), gr.Point(280, 500))
stair_rect = gr.Rectangle(gr.Point(110, 600), gr.Point(290, 580))
mid_rect2 = gr.Rectangle(gr.Point(170, 425), gr.Point(230, 375))
mid_rect3 = gr.Rectangle(gr.Point(180, 375), gr.Point(220, 325))
mid_rect4 = gr.Rectangle(gr.Point(185, 325), gr.Point(215, 275))
mid_rect5 = gr.Rectangle(gr.Point(190, 275), gr.Point(210, 240))
clock = gr.Circle(gr.Point(200, 350), 10)
pointer = gr.Polygon(gr.Point(190, 240), gr.Point(210, 240),
gr.Point(200, 175))
dot_top = gr.Circle(gr.Point(200, 172), 5)
vert_line = gr.Line(gr.Point(200, 167.5), gr.Point(200, 157.5))
hor_line = gr.Line(gr.Point(195, 162.5), gr.Point(205, 162.5))
topper = gr.Polygon(gr.Point(205, 157.5), gr.Point(195, 157.5),
gr.Point(197, 152.5), gr.Point(200, 152.5),
gr.Point(200, 155), gr.Point(205, 155))
sun = gr.Circle(gr.Point(50, 50), 50)
sun.setFill('yellow')
sun.setOutline('yellow')
grass = gr.Rectangle(gr.Point(0, 600), gr.Point(400, 595))
grass.setFill('green')
grass.setOutline('green')
objects = [
base, right_rect, left_rect, right_tri, left_tri, mid_rect, mid_tri,
pillar1, pillar2, pillar3, pillar4, pillar5, pillar6, stair_rect,
mid_rect2, mid_rect3, mid_rect4, mid_rect5, clock, pointer, dot_top,
vert_line, hor_line, topper, sun, grass
]
for item in objects:
item.draw(win)
return win
def patch_six(window):
for i in range(11):
p1 = g.Point(50 + (i * 50), 50)
p2 = g.Point(600 - p1.getX(), 600 - p1.getY())
line = g.Line(p1, p2)
line.draw(window)
for i in range(11):
p1 = g.Point(50, 50 + (i * 50))
p2 = g.Point(600 - p1.getX(), 600 - p1.getY())
line = g.Line(p1, p2)
line.draw(window)
def draw_stick_figure():
head = g.Circle(g.Point(100, 60), 20)
head.draw(win)
body = g.Line(g.Point(100, 80), g.Point(100, 120))
body.draw(win)
arms = g.Line(g.Point(70, 100), g.Point(130, 100))
arms.draw(win)
leg_l = g.Line(g.Point(100, 120), g.Point(120, 170))
leg_l.draw(win)
leg_r = g.Line(g.Point(100, 120), g.Point(80, 170))
leg_r.draw(win)
def lines(self):
lines = []
for i in range(self.size):
vertLine = graphics.Line(graphics.Point(30 * i, 0), graphics.Point(30 * i, 420))
lines.append(vertLine)
for i in range(self.size):
horizLine = graphics.Line(graphics.Point(0, 30 * i), graphics.Point(420, 30 * i))
lines.append(horizLine)
for item in lines:
item.draw(self.win)
def legs():
leg2 = gr.Line(gr.Point(120, 230), gr.Point(120, 290))
leg2.setWidth(40)
leg2.setOutline('brown')
leg1 = gr.Line(gr.Point(200, 230), gr.Point(200, 290))
leg1.setWidth(40)
leg1.setOutline('brown')
leg1.draw(window)
leg2.draw(window)
def factorial_rect(A, B, C, D, deep=10, alpha=0.2):
if deep == 0:
return
gr.Line(gr.Point(*A), gr.Point(*B)).draw(window)
gr.Line(gr.Point(*B), gr.Point(*C)).draw(window)
gr.Line(gr.Point(*C), gr.Point(*D)).draw(window)
gr.Line(gr.Point(*D), gr.Point(*A)).draw(window)
A1 = ((1 - alpha) * A[0] + alpha * B[0], (1 - alpha) * A[1] + alpha * B[1])
B1 = ((1 - alpha) * B[0] + alpha * C[0], (1 - alpha) * B[1] + alpha * C[1])
C1 = ((1 - alpha) * C[0] + alpha * D[0], (1 - alpha) * C[1] + alpha * D[1])
D1 = ((1 - alpha) * D[0] + alpha * A[0], (1 - alpha) * D[1] + alpha * A[1])
factorial_rect(A1, B1, C1, D1, deep - 1)
