def smile(x, y, color):
radius = 30
_point = sd.get_point(x=x, y=y)
sd.circle(center_position=_point,
radius=radius,
width=3,
color=sd.COLOR_BLACK)
sd.circle(center_position=_point, radius=radius - 2, width=0, color=color)
left_point = sd.get_point(x=x - radius // 3, y=y + radius // 3)
right_point = sd.get_point(x=x - radius // 5, y=y + 2 * radius // 3)
sd.ellipse(left_bottom=left_point,
right_top=right_point,
color=sd.COLOR_BLACK)
left_point = sd.get_point(x=x + radius // 5, y=y + radius // 3)
right_point = sd.get_point(x=x + radius // 3, y=y + 2 * radius // 3)
sd.ellipse(left_bottom=left_point,
right_top=right_point,
color=sd.COLOR_BLACK)
mouth = [
sd.Point(x=x - radius // 2, y=y - radius // 3),
sd.Point(x=x - radius // 4, y=y - radius // 2),
sd.Point(x=x + radius // 4, y=y - radius // 2),
sd.Point(x=x + radius // 2, y=y - radius // 3),
]
sd.lines(point_list=mouth, width=3, color=sd.COLOR_BLACK)
def draw_roof(x0, y0, height_wall, width_wall, COLOR):
points = [
sd.Point(x=x0 - width_wall / 4, y=y0 + height_wall),
sd.Point(x=x0 + width_wall / 2, y=y0 + 1.8 * height_wall),
sd.Point(x=x0 + 5 * width_wall / 4, y=y0 + height_wall)
]
sd.polygon(point_list=points, color=COLOR, width=0)
def smile(x, y, colors):
sd.circle(sd.Point(x + 11, y + 11), 6, colors, 1)
sd.circle(sd.Point(x - 9, y + 11), 6, colors, 1)
sd.circle(sd.Point(x, y), 30, colors, 1)
sd.line(sd.Point(x - 6, y - 9), sd.Point(x + 7, y - 9), colors, 1)
sd.line(sd.Point(x - 6, y - 9), sd.Point(x - 9, y - 6), colors, 1)
sd.line(sd.Point(x + 7, y - 9), sd.Point(x + 10, y - 6), colors, 1)
def draw_house(_x=300, _y=10):
brick_height = 10
brick_length = 30
brick_seam = 3
house_length = brick_length * 9 + brick_seam * 8
house_height = (brick_height + brick_seam) * 18
brick_color = (136, 69, 53)
seam_color = (104, 108, 94)
bottom_point = sd.get_point(_x, _y)
top_point = sd.get_point(x=_x + house_length, y=_y + house_height)
sd.rectangle(left_bottom=bottom_point,
right_top=top_point,
color=brick_color)
triangle = [
sd.Point(_x - 50, _y + house_height),
sd.Point(_x + house_length + 50, _y + house_height),
sd.Point(_x + house_length // 2, _y + house_length),
]
sd.polygon(point_list=triangle, width=0, color=seam_color)
for y in range(house_height // (brick_height + brick_seam)):
if y % 2 == 0:
start_x = _x + brick_length
else:
start_x = _x + brick_length // 2
if 0 < y <= house_height // (brick_height + brick_seam):
line_point1 = sd.get_point(x=_x,
y=_y + y * (brick_height + brick_seam))
line_point2 = sd.get_point(x=_x + house_length - 1,
y=_y + y * (brick_height + brick_seam))
sd.line(start_point=line_point1,
end_point=line_point2,
color=seam_color,
width=brick_seam)
for x in range(start_x, _x + house_length, brick_length + brick_seam):
line_point1 = sd.get_point(x=x,
y=_y + y * (brick_height + brick_seam))
line_point2 = sd.get_point(x=x,
y=_y + (y + 1) *
(brick_height + brick_seam))
sd.line(start_point=line_point1,
end_point=line_point2,
color=seam_color,
width=brick_seam)
bottom_point = sd.get_point(x=_x + (brick_length + brick_seam) * 3 - 2,
y=_y + (brick_height + brick_seam) * 6 + 2)
top_point = sd.get_point(x=_x + (brick_length + brick_seam) * 6,
y=_y + (brick_height + brick_seam) * 12)
sd.rectangle(left_bottom=bottom_point,
right_top=top_point,
color=(157, 161, 170))
sd.rectangle(left_bottom=bottom_point,
right_top=top_point,
color=(138, 102, 66),
width=4)
def draw_wall():
k = 0
for i in range(0, 400, 50):
k = 50 - k
for j in range(k + 400, 800, 100):
left_bottom = sd.Point(j, i)
right_top = sd.Point(j + 100, i + 50)
sd.rectangle(left_bottom=left_bottom,
right_top=right_top,
color=sd.COLOR_DARK_RED,
width=2)
def smile(x, y, color):
radius = 50
s.circle(center_position=s.Point(x, y), radius=radius, color=color, width=0)
s.circle(center_position=s.Point(x + 15, y + 20), radius=7, color=s.COLOR_CYAN, width=0)
s.circle(center_position=s.Point(x - 15, y + 20), radius=7, color=s.COLOR_CYAN, width=0)
s.line(start_point=s.Point(x - 20, y - 10), end_point=s.Point(x + 20, y - 10), color=s.COLOR_RED, width=4)
s.line(start_point=s.Point(x - 20, y - 12), end_point=s.Point(x + -30, y + 5), color=s.COLOR_RED, width=4)
s.line(start_point=s.Point(x + 20, y - 12), end_point=s.Point(x + 30, y + 5), color=s.COLOR_RED, width=4)
def ulibka(x, y, color):
x3 = x - 50
y3 = y - 10
x4 = x - 25
y4 = y - 25
x5 = x + 25
y5 = y - 25
x6 = x + 50
y6 = y - 10
point3 = sd.Point(x3, y3)
point4 = sd.Point(x4, y4)
point5 = sd.Point(x5, y5)
point6 = sd.Point(x6, y6)
point_list = (point3, point4, point5, point6)
sd.lines(point_list, color, False, 2)
def falling_snowflake():
snowflakes_length = [sd.random_number(10, 101) for _ in range(20)]
snowflakes_point = {
i: [sd.random_number(0, 500), 500, i]
for i in range(20)
}
old_points_arr = [[snowflakes_point[key][0], snowflakes_point[key][1]]
for key, val in snowflakes_point.items()]
while True:
sd.start_drawing()
for i in range(20):
if len(old_points_arr) < 20:
sd.snowflake(center=old_points_arr[i],
length=snowflakes_length[i],
color=sd.background_color)
x, y, delay = snowflakes_point[i]
if delay < 1:
point = sd.get_point(x, y)
sd.snowflake(center=sd.Point(old_points_arr[i][0],
old_points_arr[i][1]),
length=snowflakes_length[i],
color=sd.background_color)
sd.snowflake(center=point, length=snowflakes_length[i])
if y < 20:
snowflakes_point[i][1] = 500
continue
snowflakes_point[i][1] -= 9
snowflakes_point[i][0] += sd.random_number(-10, 10)
old_points_arr[i] = [x, y]
snowflakes_point[i][2] -= .2
sd.finish_drawing()
sd.sleep(0.1)
if sd.user_want_exit():
break
def smile(x, y, color):
point = sd.Point(
x,
y,
)
sd.circle(point, 100, color, 5)
glaz(x, y, color)
glaz_2(x, y, color)
ulibka(x, y, color)
def draw_sun(_x, _y, _color=sd.COLOR_YELLOW, _step=30):
# """Функция рисуюет смайл"""
for i in range(0, 360, _step):
sd.vector(start=sd.get_point(_x, _y), angle=i, length=80, color=_color)
center_position = sd.Point(_x, _y)
radius = 50
sd.circle(center_position=center_position,
radius=radius,
color=sd.COLOR_YELLOW,
width=0)
def rainbow():
rainbow_colors = [
sd.COLOR_RED, sd.COLOR_ORANGE, sd.COLOR_YELLOW, sd.COLOR_GREEN,
sd.COLOR_CYAN, sd.COLOR_BLUE, sd.COLOR_PURPLE
]
radius = 750
for _ in rainbow_colors:
color = rainbow_colors[sd.random_number(0, 6)]
sd.circle(sd.Point(350, 50), radius, color, 20)
radius += 20
def paint():
home.house()
home.window_and_roof()
branch.branch(sd.Point(900, 50), 90, 80)
branch.branch(sd.Point(800, 50), 90, 30)
branch.branch(sd.Point(1000, 50), 90, 30)
flakes = [sun.Snowflake_Sun() for _ in range(10)]
vectors = [
sun.Snowflake_Sun().vector(angles=angles)
for angles in range(0, 361, 30)
]
while True:
sd.start_drawing()
smile.smile(550, 150, sd.COLOR_BLACK)
sun.sun_anim(vectors)
sun.snowflake(flakes)
smile.smile1(550, 150, sd.COLOR_BLACK)
rainbow.rainbow()
sd.finish_drawing()
sd.sleep(0.05)
if sd.user_want_exit():
break
def draw_rainbow(_i=0):
center_position = sd.Point(1500, 50)
radius = 400
if _i == 1:
k = -1
else:
k = 1
for color in rainbow_colors[k]:
color = rainbow_colors[sd.random_number(0, 6)]
radius += 20
sd.circle(center_position=center_position,
radius=radius,
color=color,
width=20)
def third_screen():
for i in range(10):
point = sd.random_point()
color = sd.random_color()
dx = sd.random_number(30, 100)
dy = sd.random_number(30, 100)
right_top = sd.Point(x=point.x + dx, y=point.y + dy)
sd.ellipse(left_bottom=point, right_top=right_top, color=color)
v3 = sd.Vector(start_point=sd.Point(0, 0), direction=90, length=50)
for direction in range(0, 181, 20):
v = sd.Vector(start_point=sd.Point(x=300, y=300),
direction=direction,
length=100)
v.draw(width=3)
v2 = sd.Vector(start_point=v.end_point,
direction=direction + 30,
length=50)
v2.draw(color=sd.COLOR_GREEN, width=2)
v2.add(v3)
v2.draw(color=sd.COLOR_ORANGE)
sd.snowflake(center=sd.Point(), length=60, factor_b=0.2, factor_c=100)
if TAKE_SNAPSHOTS:
sd.take_snapshot(path=SNAPSHOTS_PATH)
def second_screen():
sd.start_drawing()
sd.vector(start=sd.Point(x=230, y=260),
angle=70,
length=200,
color=sd.COLOR_PURPLE,
width=2)
for i in range(10):
point = sd.random_point()
color = sd.random_color()
radius = sd.random_number(20, 60)
sd.circle(center_position=point, radius=radius, color=color, width=0)
sd.finish_drawing()
if TAKE_SNAPSHOTS:
sd.take_snapshot(file_name='second_screen.png', path=SNAPSHOTS_PATH)
def calc_p1(self, t, b):
if t == 0:
t = 1e-6
if t == 1:
t -= 1e-6
nt = 1 - t
nt2 = nt * nt
t2 = t * t
p = sd.Point()
p.x = (b.x - nt2 * self.points[0].x - t2 * self.points[2].x) / (2 * t *
nt)
p.y = (b.y - nt2 * self.points[0].y - t2 * self.points[2].y) / (2 * t *
nt)
self.points[1] = p
def window_and_roof():
points_for_roof = [
sd.Point(350, 250),
sd.Point(750, 250),
sd.Point(550, 330)
]
sd.lines(points_for_roof, width=0, closed=True)
sd.rectangle(sd.Point(500, 110), sd.Point(600, 210), width=0)
sd.polygon(points_for_roof, color=sd.COLOR_RED, width=0)
sd.square(sd.Point(500, 110), 100, color=sd.COLOR_BLACK, width=4)
def snowfall():
for k in range(2):
y = 500
for i in range(10):
sd.clear_screen()
y -= 30
for x in [100, 200, 300, 400, 500]:
radius = sd.random_number(30, 50)
point = sd.Point(x=x, y=y)
sd.snowflake(center=point, length=radius)
mouse_point, mouse_buttons = sd.get_mouse_state()
print("mouse_state is {} + {}".format(mouse_point,
mouse_buttons))
if sd.user_want_exit(sleep_time=0.1):
break
if sd.user_want_exit(0):
break
def smile(_x, _y, color):
"""Функция рисуюет смайл"""
center_position = sd.Point(_x, _y)
center_position_left_eye = sd.Point(_x - 15, _y + 15)
center_position_right_eye = sd.Point(_x + 15, _y + 15)
first_dot_smile = sd.Point(_x - 25, _y - 10)
second_dot_smile = sd.Point(_x - 5, _y - 20)
third_dot_smile = sd.Point(_x + 5, _y - 20)
four_dot_smile = sd.Point(_x + 25, _y - 10)
point_list = [first_dot_smile, second_dot_smile, third_dot_smile, four_dot_smile]
radius = 50
radius_eye = 5
sd.circle(center_position=center_position, radius=radius, color=color, width=4)
sd.circle(center_position=center_position_left_eye, radius=radius_eye, color=color, width=3)
sd.circle(center_position=center_position_right_eye, radius=radius_eye, color=color, width=3)
sd.lines(point_list=point_list, color=color, width=3)
def house():
sd.rectangle(sd.Point(0, 0),
sd.Point(1200, 50),
color=sd.COLOR_WHITE,
width=0) # снежное поле
sd.rectangle(sd.Point(400, 50), sd.Point(700, 250), width=1)
delta = 25
for y in range(50, 250, 20):
delta += 25
for x in range(375 + delta, 675, 50):
if x > 375:
sd.rectangle(sd.Point(x, y), sd.Point(x + 50, y + 20), width=1)
delta -= 50
def getTBSegment(segment, Pc, T, R, D):
kk = (1 - T) * 0.5
t = kk + T
k_extr = 0
b = sd.Point()
for cycle in range(100):
segment.calc(t, b)
d_ = length_line(b, Pc) - R
if abs(d_) <= D:
return (t, b)
if kk == k_extr:
k = -0.5 if d_ > 0 else 0.5
else:
k = -1 if d_ > 0 else 1
k_extr = kk
kk *= k
t += kk
kk = abs(kk)
return (t, b)
# В итоге должно получиться:
# - одна общая функция со множеством параметров,
# - все функции отрисовки треугольника/квадрата/етс берут 3 параметра и внутри себя ВЫЗЫВАЮТ общую функцию.
#
# Не забудте в этой общей функции придумать, как устранить разрыв в начальной/конечной точках рисуемой фигуры
# (если он есть. подсказка - на последней итерации можно использовать линию от первой точки)
# Часть 2-бис.
# А теперь - сколько надо работы что бы внести изменения в код? Выгода на лицо :)
# Поэтому среди программистов есть принцип D.R.Y. https://clck.ru/GEsA9
# Будьте ленивыми, не используйте копи-пасту!
def geometry(point, angles=3, length=100):
point_1 = point
for angle in range(0, angles - 1, 1):
v = sd.get_vector(point, angle=angle * (360 // angles), length=length)
point = v.end_point
v.draw()
sd.line(point_1, point)
geometry(sd.Point(100, 100), 3)
geometry(sd.Point(400, 100), 4)
geometry(sd.Point(100, 300), 5)
geometry(sd.Point(400, 300), 6)
sd.pause()
# зачет!
common_part(*args,3)
def square(*args):
common_part(*args,4)
def pentagon(*args):
common_part(*args,5)
def hexagon(*args):
common_part(*args,6)
triangle(sd.Point(100, 100), 30, 100)
square(sd.Point(370, 100), 30, 100)
pentagon(sd.Point(150, 400), 30, 100)
hexagon(sd.Point(450, 350), 30, 100)
# Часть 2 (делается после зачета первой части)
#
# Надо сформировать функцию, параметризированную в местах где была "небольшая правка".
# Это называется "Выделить общую часть алгоритма в отдельную функцию"
# Потом надо изменить функции рисования конкретных фигур - вызывать общую функцию вместо "почти" одинакового кода.
#
# В итоге должно получиться:
# - одна общая функция со множеством параметров,
# - все функции отрисовки треугольника/квадрата/етс берут 3 параметра и внутри себя ВЫЗЫВАЮТ общую функцию.
#
# -*- coding: utf-8 -*-
import random
import simple_draw as sd
sd.resolution = (1200, 600)
# Нарисовать пузырек - три вложенных окружностей с шагом 5 пикселей
point = sd.Point(100, 200)
radius = 50
for _ in range(3):
radius += 5
sd.circle(center_position=point, radius=radius)
# Написать функцию рисования пузырька, принммающую 3 (или более) параметра: точка рисования, шаг и цвет
def bubble(
point_,
radius_,
color_,
):
"""Функция рисует пузырь"""
for _ in range(3):
radius_ += 5
sd.circle(center_position=point_, radius=radius_, color=color_)
# Нарисовать 10 пузырьков в ряд
radius = 50
color = sd.COLOR_RED
for x in range(100, 1100, 100):
def draw(self, color):
if self.y > self.length:
sd.snowflake(center=sd.Point(self.x, self.y),
length=self.length,
color=color)
def pentagon(*args):
common_part(*args, 5)
def hexagon(*args):
common_part(*args, 6)
a = int(
input("""Какой цвет вы хотите выбрать?
0 - Красный
1 - Оранжевый
2 - Желтый
3 - Зеленый
4 - Голубой
5 - Синий
6 - Пурпурный
Выберите желаемый цвет > """))
while True:
if -1 < a < 7:
break
else:
print("Вы ввели некоректное число")
a = int(input('Выберите желаемый цвет >'))
continue
triangle(sd.Point(100, 100), 30, 100, ALL_COLOR[a])
square(sd.Point(370, 100), 30, 100, ALL_COLOR[a])
pentagon(sd.Point(150, 400), 30, 100, ALL_COLOR[a])
hexagon(sd.Point(450, 350), 30, 100, ALL_COLOR[a])
sd.pause()
# -*- coding: utf-8 -*-
import simple_draw as sd
import random as rand
sd.resolution = (1200, 600)
# Нарисовать пузырек - три вложенных окружностей с шагом 5 пикселей
point = sd.Point(x=80, y=80)
for i in range(1, 4):
r = 50 + i * 5
sd.circle(center_position=point, radius=r, color=sd.COLOR_PURPLE, width=1)
# Написать функцию рисования пузырька, принммающую 2 (или более) параметра: точка рисовании и шаг
def draw_bubbles(center, rad, step, clr, width):
for ii in range(1, 4):
sd.circle(center_position=center,
radius=rad + ii * step,
color=clr,
width=width)
point = sd.Point(x=230, y=80)
color = sd.COLOR_DARK_RED
draw_bubbles(point, 50, 10, color, 3)
# Нарисовать 10 пузырьков в ряд
color = sd.COLOR_DARK_ORANGE
for i in range(10):
def first_screen():
points = [
sd.Point(x=230, y=450),
sd.Point(x=240, y=460),
sd.Point(x=230, y=470),
sd.Point(x=240, y=480),
]
sd.polygon(point_list=points)
points2 = [sd.Point(p.x + 20, p.y + 20) for p in points]
sd.lines(point_list=points2, color=sd.COLOR_DARK_ORANGE, width=2)
sd.line(start_point=sd.Point(x=20, y=20),
end_point=sd.Point(x=40, y=300),
width=2)
sd.square(left_bottom=sd.Point(
400,
300,
), side=100, width=2)
sd.rectangle(
left_bottom=sd.Point(x=200, y=200),
right_top=sd.Point(x=300, y=300),
color=sd.COLOR_DARK_GREEN,
width=2,
)
sd.rectangle(
left_bottom=sd.Point(x=400, y=300),
right_top=sd.Point(x=300, y=400),
color=sd.COLOR_DARK_GREEN,
width=2,
)
if TAKE_SNAPSHOTS:
sd.take_snapshot(path=SNAPSHOTS_PATH)
pygame.draw.line(
sc, COLOR_LINE, [10, sc.get_height() - 10],
[sc.get_width() - 10, sc.get_height() - 10])
pygame.draw.line(sc, COLOR_LINE, [10, 10], [10, sc.get_height() - 10])
pygame.display.update()
# Обозначение линий координат и их разметка
font = pygame.font.SysFont('Consolas', 18)
PaintSimbol("0", 17, 17)
PaintSimbol("D", 17, sc.get_height() - 17)
PaintSimbol("t", sc.get_width() - 17, 17)
PaintMetki()
pygame.display.update()
for i in range(0, 100):
MassivTochek.append(sd.Point(i, (150 + 120 * math.sin(math.pi / 12 * i))))
while 1:
for i in pygame.event.get():
if i.type == pygame.QUIT:
pygame.quit()
# # Рисуем синус зелёным
for i in range(len(MassivTochek)):
text = font.render(".", 1, (COLOR_TEXT))
y = sc.get_height() - MassivTochek[i].y + 5
place = text.get_rect(center=(i * 10 + 5, y))
sc.blit(text, place)
pygame.display.update()
# # Рисуем косинус желтым
def glaz_2(x, y, color):
x2 = x + 40
y2 = y + 40
point2 = sd.Point(x2, y2)
sd.circle(point2, 25, color, 2)
