def main():
points = [Point(x=230, y=450), Point(x=240, y=460), Point(x=230, y=470), Point(x=240, y=480)]
polygon(point_list=points)
points2 = [Point(p.x + 20, p.y + 20) for p in points]
lines(point_list=points2, color=COLOR_DARK_ORANGE)
line(start_point=Point(x=20, y=20), end_point=Point(x=40, y=300))
square(left_bottom=Point(400, 300, ), side=100)
rectangle(
left_bottom=Point(x=200, y=200),
right_top=Point(x=300, y=300),
color=COLOR_DARK_GREEN
)
rectangle(
left_bottom=Point(x=400, y=300),
right_top=Point(x=300, y=400),
color=COLOR_DARK_GREEN
)
sleep(2)
clear_screen()
vector(start=Point(x=230, y=260), angle=70, length=200, color=COLOR_PURPLE)
for i in range(10):
point = random_point()
color = random_color()
radius = random_number(20, 60)
circle(center_position=point, radius=radius, color=color, width=0)
sleep(2)
clear_screen()
for i in range(10):
point = random_point()
color = random_color()
dx = random_number(30, 100)
dy = random_number(30, 100)
right_top = Point(x=point.x + dx, y=point.y + dy)
ellipse(left_bottom=point, right_top=right_top, color=color)
v3 = Vector(start_point=Point(0, 0), direction=45, length=50)
for direction in range(0, 181, 20):
v = Vector(start_point=Point(x=300, y=300), direction=direction, length=100)
v.draw()
v2 = Vector(start_point=v.end_point, direction=direction + 30, length=50)
v2.draw(color=COLOR_GREEN)
v2.add(v3)
v2.draw(color=COLOR_ORANGE)
snowflake(center=Point(), length=60, factor_b=0.2, factor_c=100)
sleep(2)
for k in range(2):
y = 500
for i in range(10):
clear_screen()
y -= 30
for x in [100, 200, 300, 400, 500]:
radius = random_number(30, 50)
point = Point(x=x, y=y)
snowflake(center=point, length=radius)
mouse_point, mouse_buttons = get_mouse_state()
print("mouse_state is {} + {}".format(mouse_point, mouse_buttons))
if user_want_exit(sleep_time=0.1):
break
if user_want_exit(0):
break
def show_bubble(bub_center, bub_radius=20):
''' draws the bubble then removes it by background color'''
draw_bubble(bub_center=bub_center, bub_radius=bub_radius)
sd.sleep(0.05)
draw_bubble(bub_center=bub_center,
bub_radius=bub_radius,
bub_color=sd.background_color)
def draw_sun(x, y, length):
global angle
radius = length // 2
sd.start_drawing()
sd.vector(sd.get_point(x, y),
angle=angle,
length=length,
color=sd.background_color,
width=3)
angle += 30
sd.vector(sd.get_point(x, y),
angle=angle,
length=length,
color=(255, 255, 0),
width=3)
sd.vector(sd.get_point(x, y),
angle=angle + 30,
length=length,
color=(255, 255, 0),
width=3)
sd.vector(sd.get_point(x, y),
angle=angle + 60,
length=length,
color=(255, 255, 0),
width=3)
sd.finish_drawing()
sd.circle(sd.get_point(x, y), radius=radius, width=0)
sd.sleep(0.01)
def snowfall(N):
snowflake = []
for _ in range(N):
snowflake.append(([sd.random_number(-50, 1250), sd.random_number(550, 1600), sd.random_number(23, 47)]))
while True:
sd.start_drawing()
for snow in snowflake:
x, y, length = snow
point = sd.get_point(x, y)
sd.snowflake(center=point, length=length, color=sd.background_color, factor_a=0.6)
if y > 50:
snow[1] -= 10
snow[0] -= 10
point_fall = sd.get_point(x, y)
sd.snowflake(point_fall, length=length, color=sd.COLOR_WHITE)
else:
last_point = sd.get_point(x, y - 1)
sd.snowflake(last_point, length, color=sd.COLOR_WHITE)
snow[1] += 1250
sd.finish_drawing()
sd.sleep(0.05)
if sd.user_want_exit():
break
sd.clear_screen()
def falling():
while True:
sd.start_drawing()
for i in range(N - 1):
size = size_list[i]
sd.snowflake(center=sd.get_point(x=x_list[i], y=y_list[i]),
length=size,
color=sd.background_color)
y_list[i] -= speed_list[i]
sd.snowflake(center=sd.get_point(x=x_list[i], y=y_list[i]),
length=size,
color=sd.COLOR_WHITE)
if y_list[i] < 40:
y_list[i] = 600
point1 = sd.get_point(x_list[i], y_list[i])
sd.snowflake(center=point1,
length=size,
color=sd.COLOR_WHITE,
factor_a=0.6,
factor_b=0.35,
factor_c=60)
sd.sleep(0.001)
sd.finish_drawing()
if sd.user_want_exit():
break
def snowfall(coord_x=0, coord_y=500):
count_snowfall = 20
x = []
for _ in range(count_snowfall):
x.append(sd.random_number(coord_x, coord_y))
y = []
for _ in range(count_snowfall):
y.append(sd.random_number(coord_x, coord_y))
while True:
sd.start_drawing()
for i in range(len(x)):
if i > 0:
point1 = sd.get_point(x[i - 1], y[i - 1])
sd.snowflake(center=point1, length=10, color=sd.COLOR_WHITE)
point = sd.get_point(x[i], y[i])
if y[i] > 50:
sd.snowflake(center=point,
length=10,
color=sd.background_color)
y[i] -= sd.random_number(-1, 15)
x[i] = x[i] + sd.random_number(-15, 15)
sd.finish_drawing()
sd.sleep(0.1)
def snowfall1(n=5):
quantity_snowflakes = n
snowflake_dict = {}
for number_x in range(quantity_snowflakes):
x = sd.random_number(50, 100)
y = sd.random_number(800, 850)
length = sd.random_number(5, 15)
snowflake_dict[number_x] = [x, y, length]
while True:
sd.start_drawing()
for sf_name, value in snowflake_dict.items():
x = value[0]
y = value[1]
length = value[2]
point = sd.get_point(x, y)
sd.snowflake(center=point,
length=length,
color=sd.background_color)
value[0] += sd.random_number(-5, 5)
value[1] -= sd.random_number(5, 20)
point2 = sd.get_point(value[0], value[1])
sd.snowflake(center=point2, length=length)
if value[1] < 60:
value[0] = sd.random_number(50, 100)
value[1] = value[1] + 800
sd.finish_drawing()
sd.sleep(0.1)
def show_snow(count_flake):
snow_params = []
for _ in range(count_flake):
snow_params.append([sd.random_number(0, 1000), sd.random_number(500, 600), sd.random_number(20, 40)])
while True:
for flake in snow_params:
x, y, length = flake
draw_flake(x, y, length, sd.COLOR_WHITE)
sd.finish_drawing()
sd.sleep(0.1)
for key, flake in enumerate(snow_params):
x, y, length = flake
draw_flake(x, y, length, sd.background_color)
snow_params[key][0] += sd.random_number(-25, 25)
snow_params[key][1] -= sd.random_number(1, 25)
if y < 0:
break
if sd.user_want_exit():
break
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 snowflake():
ground_level = 50
k = 0
while True:
sd.start_drawing()
for i in snowflakes_param:
x = i[0]
y = i[1]
point = sd.get_point(x, y)
snowflake_length = i[2]
sd.snowflake(center=point,
length=snowflake_length,
color=sd.background_color)
i[1] -= sd.random_number(0, 20)
i[0] += sd.random_number(-20, 20)
point_1 = sd.get_point(i[0], i[1])
sd.snowflake(center=point_1,
length=snowflake_length,
color='white')
if y < ground_level:
ind = snowflakes_param.index(i)
fallen.append(snowflakes_param.pop(ind))
flake_add(snowflakes_param, 1)
k += 1
if k >= 10:
ground_level += 5
k = 0
sd.finish_drawing()
sd.sleep(0.1)
if sd.user_want_exit():
break
def snowflakes(_x1, _y1, _x2, _y2):
def new_snowflake():
_x = sd.random_number(_x1, _y1)
_y = sd.random_number(_x2, _y2)
_length = sd.random_number(10, 20)
_my_dict = {'x': _x, 'y': _y, 'length': _length}
snowflakes[i] = _my_dict
snowflakes = {}
for i in range(50):
new_snowflake()
while True:
sd.start_drawing()
for i, snowflake in snowflakes.items():
sd.snowflake(center=sd.get_point(snowflake['x'], snowflake['y']), length=snowflake['length'],
color=sd.background_color)
snowflake['y'] -= 10
if snowflake['x'] >= 340:
snowflake['x'] += sd.random_number(-51, -50)
snowflake['x'] += sd.random_number(-50, 50)
sd.snowflake(center=sd.get_point(snowflake['x'], snowflake['y']), length=snowflake['length'],
color=sd.COLOR_WHITE)
if snowflake['y'] < snowflake['length']:
new_snowflake()
continue
sd.sleep(0.005)
sd.finish_drawing()
if sd.user_want_exit():
break
sd.pause()
def snowfall():
flakes = dict(x=[], y=[], size=[])
for i in range(N):
flakes['x'].append(sd.random_number(0, sd.resolution[0] // 5))
flakes['y'].append(sd.random_number(sd.resolution[1] - 400, sd.resolution[1] - 200))
flakes['size'].append(sd.random_number(5, 30))
while True:
sd.start_drawing()
if 'points' in locals():
for index in range(N):
sd.snowflake(center=points[index], length=flakes['size'][index], color=sd.background_color)
points = []
for index in range(N):
point = sd.get_point(flakes['x'][index], flakes['y'][index])
points.append(point)
sd.snowflake(center=point, length=flakes['size'][index])
if flakes['y'][index] > sd.random_number(130, 160):
flakes['y'][index] -= sd.random_number(2, 10)
flakes['x'][index] += sd.random_number(-5, 5)
sd.finish_drawing()
sd.sleep(0.1)
if sd.user_want_exit():
break
def snow(y_drop):
drift = 5
sd.start_drawing()
for snowflake in range(N):
point = sd.get_point(x_coordinates_list[snowflake],
y_coordinates_list[snowflake])
sd.snowflake(center=point,
length=length_list[snowflake],
color=sd.background_color)
if y_coordinates_list[snowflake] > drift and x_coordinates_list[
snowflake] < 300:
y_coordinates_list[snowflake] -= y_drop
random_vector = sd.random_number(-8, 8)
if length_list[snowflake] < 35:
x_coordinates_list[snowflake] = x_coordinates_list[
snowflake] + random_vector * 1.4
else:
x_coordinates_list[
snowflake] = x_coordinates_list[snowflake] + random_vector
point_new = sd.get_point(x_coordinates_list[snowflake],
y_coordinates_list[snowflake])
sd.snowflake(center=point_new, length=length_list[snowflake])
else:
sd.snowflake(center=point, length=length_list[snowflake])
x_coordinates_list[snowflake] = sd.random_number(30, 200)
y_coordinates_list[snowflake] = sd.random_number(500, 900)
length_list[snowflake] = sd.random_number(1, 10)
drift += 0.1
sd.finish_drawing()
sd.sleep(0.02)
def snow():
x_list = []
y_list = []
flake_length_list = []
number_of_snowflakes = 20
for _ in range(number_of_snowflakes):
x_list.append(sd.random_number(0, sd.resolution[0]))
y_list.append(sd.random_number(sd.resolution[1], sd.resolution[1] * 2))
flake_length_list.append(sd.random_number(20, 50))
while True:
sd.start_drawing()
for x, y, length, i in zip(x_list, y_list, flake_length_list,
range(number_of_snowflakes)):
if y_list[i] > 65:
sd.snowflake(sd.get_point(x, y),
length,
color=sd.background_color)
x_list[i] += sd.random_number(-15, 15)
y_list[i] -= sd.random_number(4, 30)
if y_list[i] < 50:
y_list[i] = sd.random_number(sd.resolution[1],
sd.resolution[1] * 2)
sd.snowflake(sd.get_point(x_list[i], y_list[i]), length)
sd.finish_drawing()
sd.sleep(0.1)
if sd.user_want_exit():
break
def snowflakes(quantity):
x_list = []
y_list = []
size_list = []
length_list = []
for _ in range(quantity):
new_x = sd.random_number(50, 1150)
x_list.append(new_x)
new_y = sd.random_number(0, 600)
y_list.append(new_y)
new_size = sd.random_number(10, 40)
size_list.append(new_size)
new_length = round(sd.random_number(10, 90) / 100, 1)
length_list.append(new_length)
while True:
sd.start_drawing()
sd.clear_screen()
for i, x in enumerate(x_list):
if y_list[i] < 0:
y_list[i] = 600
point = sd.get_point(x_list[i], y_list[i])
sd.snowflake(center=point, length=size_list[i], factor_b=length_list[i])
y_list[i] -= 10
sd.finish_drawing()
sd.sleep(0.1)
if sd.user_want_exit():
break
def main():
sd.start_drawing()
plain.render(color=COLOR, need_edge=True)
sd.finish_drawing()
sd.sleep(5)
rotate_paper(360, 240)
sd.pause()
def apples(color):
for x in range(850, 1250, 100):
point = sd.get_point(x=x, y=350)
sd.circle(center_position=point, radius=15, color=sd.COLOR_GREEN, width=0)
sd.sleep(0.05)
sd.circle(center_position=point, radius=15, color=color, width=0)
sd.finish_drawing()
def act_nine():
for deg in range(40):
sd.start_drawing()
clear_screen()
plain.rotateY(angle_deg=2)
plain.render(color=COLOR, color_back=COLOR_BACK, need_edge=True)
sd.finish_drawing()
sd.sleep(0.1)
def rotate_paper(angle, steps):
angle = angle / steps
for _ in range(steps):
sd.start_drawing()
clear_screen()
plain.rotateY(angle)
plain.render(color=COLOR, need_edge=True)
sd.finish_drawing()
sd.sleep(0.05)
def snowfall_main():
n = 20
# Переменная length_of_snowflake не используется.
# length_of_snowflake = sd.random_number(10, 100)
snowflakes = []
# Переменная snowflake не используется.
# snowflake = []
# генерация списка из 20 снежинок
for quantity_snowflakes in range(n):
x = sd.random_number(50, 100)
y = sd.random_number(720, 800)
length_of_snowflake = sd.random_number(10, 25)
snowflake = [x, y, length_of_snowflake]
snowflakes.append(snowflake)
while True:
sd.start_drawing()
for i, (x, y, length) in enumerate(snowflakes):
if y < 0:
# Если высота падения снежинки становится меньше нуля,то:
point = sd.get_point(x, y)
sd.snowflake(center=point,
length=length,
color=sd.background_color)
x = sd.random_number(
50, 100) # генерация новой координаты х для новой снежинки
y = sd.random_number(
720,
800) # генерация новой координаты у для новой снежинки
length_of_snowflake = sd.random_number(
10, 25) # генерация новой длины для новой снежинки
snowflake = [x, y, length_of_snowflake
] # генерация новой снежинки, взамен удаленной
snowflakes[i] = snowflake # замена снежинки по индексу
break
point = sd.get_point(x, y)
sd.snowflake(center=point,
length=length,
color=sd.background_color)
x += sd.random_number(-10, 10)
y -= sd.random_number(1, 5)
snowflakes[i] = [x, y, length]
point2 = sd.get_point(x, y)
sd.snowflake(center=point2, length=length, color=sd.COLOR_WHITE)
sd.finish_drawing()
sd.sleep(0.05)
if sd.user_want_exit():
break
def draw_items(self):
sd.start_drawing() # removes blinking
for statObj in self.static_objects:
statObj.draw_item()
for dinObj in self.mobile_objects:
dinObj.draw_item()
sd.finish_drawing() # removes blinking
sd.sleep(0.06)
sd.draw_background()
def rotate_paper(angle, steps):
angle = angle / steps
for _ in range(steps):
sd.start_drawing()
clear_screen()
plain.rotate(angle)
plain.render(color=COLOR, color_back=COLOR_BACK)
sd.finish_drawing()
sd.sleep(0.05)
def falling():
x = 50
while True:
snowflakes(N=8, y_shift=x)
sd.sleep(0.1)
snowflakes(N=8, y_shift=x, color=sd.background_color)
x -= 50
if sd.user_want_exit():
break
def fall(self):
while True:
self.clear_previous_picture()
self.move()
self.draw()
if self.cant_fall():
break
sd.sleep(0.1)
if sd.user_want_exit():
break
def snowfall(n):
speed, coord, length = [], [], []
for i in range(n):
speed.append(random.randint(10, 50))
x = random.randint(10, 250)
y = random.randint(300, 350)
coord.append([x, y])
length.append(random.randint(5, 10))
while True:
for i in range(n):
sd.start_drawing()
wind = random.randint(-20, 20)
point = sd.get_point(coord[i][0], coord[i][1])
sd.snowflake(center=point,
length=length[i],
color=sd.background_color)
coord[i][0] -= wind
coord[i][1] -= speed[i]
x0, y0 = coord[i][0], coord[i][1]
point = sd.get_point(x0, y0)
sd.snowflake(center=point, length=length[i])
if coord[i][1] <= 20 and speed != 0:
speed[i] = 0
coord[i].pop()
coord[i].pop()
sd.finish_drawing()
if speed[i] == 0:
speed.pop(i)
speed.insert(i, random.randint(5, 30))
if len(coord[i]) == 0:
length.pop(i)
length.insert(i, random.randint(5, 10))
coord.remove([])
x = random.randint(10, 250)
y = random.randint(300, 350)
coord.insert(i, [x, y])
sd.sleep(0.1)
if sd.user_want_exit():
break
# sd.pause()
# def main():
# snowfall(10)
# main()
def for_painting(length):
x_list = []
y_list = []
N = 50
for x in range(0, N - 1):
k = sd.random_number(0, 300)
x_list.insert(x, k)
for y in range(0, N - 1):
k = sd.random_number(600, 800)
y_list.insert(y, k)
for i in range(N - 1):
x = x_list[i]
y = y_list[i]
while True:
sd.start_drawing()
sd.snowflake(center=sd.get_point(x, y),
length=length,
color=sd.background_color)
y -= 20
sd.snowflake(center=sd.get_point(x, y),
length=length,
color=sd.COLOR_WHITE)
sd.sleep(0.005)
if 0 <= i < N - 30:
if y < 75:
y = 70
break
elif N - 30 <= i < N - 20:
if y < 95:
y = 90
break
elif N - 20 <= i < N - 12:
if y < 111:
y = 110
break
elif N - 12 <= i < N - 5:
if y < 121:
y = 120
break
elif N - 5 <= i < N:
if y < 141:
y = 140
break
sd.finish_drawing()
if sd.user_want_exit():
break
def snowfall():
list = []
N = 20
for i in range(N):
local = [sd.random_number(400, 600), sd.random_number(100, 300)]
list.append(local)
while True:
#sd.clear_screen()
lenght = sd.random_number(10, 70)
for item in list:
sd.start_drawing()
point = sd.get_point(item[1], item[0])
sd.snowflake(center=point,
length=lenght,
color=sd.background_color)
item[0] -= sd.random_number(-20, 50)
if item[0] < 50:
point = sd.get_point(item[1], item[0])
sd.snowflake(center=point, length=lenght, color=sd.COLOR_WHITE)
item[1] = item[1] + sd.random_number(1, 50)
point = sd.get_point(item[1], item[0])
sd.snowflake(center=point, length=lenght, color=sd.COLOR_WHITE)
sd.finish_drawing()
sd.sleep(0.01)
if sd.user_want_exit():
break
sd.pause()
# подсказка! для ускорения отрисовки можно
# - убрать clear_screen()
# - в начале рисования всех снежинок вызвать sd.start_drawing()
# - на старом месте снежинки отрисовать её же, но цветом sd.background_color
# - сдвинуть снежинку
# - отрисовать её цветом sd.COLOR_WHITE на новом месте
# - после отрисовки всех снежинок, перед sleep(), вызвать sd.finish_drawing()
# 4) Усложненное задание (делать по желанию)
# - сделать рандомные отклонения вправо/влево при каждом шаге
# - сделать сугоб внизу экрана - если снежинка долетает до низа, оставлять её там,
# и добавлять новую снежинку
# Результат решения см https://youtu.be/XBx0JtxHiLg
#зачет!
def snowfall():
x_snow = []
y_snow = []
len_snow = []
coin_iteration = []
coin_snow = 10 # количество снежинок
speed_snow = []
for i in range(coin_snow - 1):
x_snow.insert(i, randint(
20,
600)) # первоначальное размещение снежинок вверху по горизонтали
y_snow.insert(i, 830) # высота первоначального размещения снежинок
len_snow.insert(i, randint(10, 30)) # длина лучей снежинки
speed_snow.insert(i, randint(
1, 10)) # смещение снежинки вниз на каждом шаге
coin_iteration.insert(i, 3) # количество падений каждой снежинки
def snow_draw(x, y, len): # отрисовка снежинки
point = sd.get_point(x, y)
sd.snowflake(center=point, length=len)
def snow_clear(x, y, len): # закрашивание снежинки
point = sd.get_point(x, y)
color_clear = sd.background_color
sd.snowflake(center=point, length=len, color=color_clear)
while True:
for i in range(coin_snow - 1):
snow_clear(x=x_snow[i], y=y_snow[i], len=len_snow[i])
# sd.sleep(0.1)
if y_snow[i] <= 30: # высота на которой снежинка останавливается
snow_draw(x=x_snow[i], y=y_snow[i], len=len_snow[i])
coin_iteration[i] -= 1
x_end, y_end, len_end = x_snow, y_snow, len_snow
x_snow[i] = randint(20, 600)
y_snow[i] = 830
len_snow[i] = randint(10, 30)
speed_snow[i] = randint(1, 10)
if coin_iteration[i] <= 0:
speed_snow[i] = 0
x_snow, y_snow, len_snow = x_end, y_end, len_end
y_snow[i] -= speed_snow[i]
snow_draw(x=x_snow[i], y=y_snow[i], len=len_snow[i])
# sd.sleep (0.1)
# print('coin_iteration - ', coin_iteration)
# print('speed_snow - ', speed_snow)
# print(set(speed_snow))
if sd.user_want_exit():
break
if set(speed_snow) == {0}:
sd.sleep(3)
break
def fitness():
start_angle1 = 0
start_angle2 = 0
while True:
sd.start_drawing()
fn.arm(color1=sd.background_color,
color2=sd.background_color,
color3=sd.background_color,
angle1=start_angle1,
angle2=start_angle2)
if (start_angle1 + 0.5) % 45 < 0.9:
start_angle1 = start_angle1 - 0.4
else:
start_angle1 = start_angle1 - 0.2
if (start_angle2 + 0.5) % 45 < 0.9:
start_angle2 = start_angle2 + 0.8
else:
start_angle2 = start_angle2 + 0.4
fn.arm(color1=(169, 169, 169),
color2=(105, 105, 105),
color3=(244, 164, 96),
angle1=start_angle1,
angle2=start_angle2)
sd.finish_drawing()
sd.sleep(0.01)
if start_angle2 - start_angle1 > 130:
break
while True:
sd.start_drawing()
fn.arm(color1=sd.background_color,
color2=sd.background_color,
color3=sd.background_color,
angle1=start_angle1,
angle2=start_angle2)
if (start_angle1 + 0.5) % 45 < 0.9:
start_angle1 = start_angle1 + 0.4
else:
start_angle1 = start_angle1 + 0.2
if (start_angle2 + 0.5) % 45 < 0.9:
start_angle2 = start_angle2 - 0.8
else:
start_angle2 = start_angle2 - 0.4
fn.arm(color1=(169, 169, 169),
color2=(105, 105, 105),
color3=(244, 164, 96),
angle1=start_angle1,
angle2=start_angle2)
sd.finish_drawing()
sd.sleep(0.01)
if start_angle2 - start_angle1 < 0:
break
def show_bubbles_cloud(b_cloud=[]):
''' draws all bubbles in list then removes them'''
if not b_cloud:
return
sd.take_background()
sd.start_drawing() # removes blinking
for bubble in b_cloud:
point = sd.get_point(bubble['x'], bubble['y'])
draw_bubble(point, bubble['r'], bub_color=bubble['col'])
sd.finish_drawing() # removes blinking
sd.sleep(0.05)
sd.draw_background()
return
def animation():
raindbow()
brick_wall()
window()
roof()
smile_face()
threes()
sd.take_background()
while True:
snowflake_drop()
animation_sun(angle=angle)
raindbow_animation()
sd.sleep(0.1)
#!/usr/bin/env python
# -*- coding: utf-8 -*-
# нарисовать снегопад - 7 движужихся снежинок радиусом от 10 до 60
# снежинки падают с высоты 500 пикселов со скоростью 30 пикселов за такт
# на расстоянии 100 пикселов друг от друга
from simple_draw import clear_screen, Point, snowflake, sleep, end
y = 500
for i in range(10):
clear_screen()
y = ... # как изменяется y для всех снежинок
for i in range(7):
point = Point(...)
snowflake(point)
sleep(0.3)
# + нарисовать снежинки разных радиусов, для этого хранить список радиусов
radiuses = [30, 20, 40, 10, 50, 70, ]
# + сделать скорость падения уникальной для каждой снежинки,
# для этого хранить список координат Y и скоростей по Y
coordinates = [...]
velocity = [...]
# ++ сделать реальный снегопад, что бы снежинки порхали из стороны в сторону
end()