def get_imgs():
"""Load an return the images used as file and folder icons."""
print("*** MCEDIT DEBUG: file_dialog:", __file__)
print("*** MCEDIT DEBUG: directory:", os.path.dirname(__file__))
print("*** MCEDIT DEBUG: current directory:", os.getcwd())
try:
file_image = get_image('file.png', prefix='')
folder_image = get_image('folder.png', prefix='')
except Exception as e:
print("MCEDIT DEBUG: Could not load file dialog images.")
print(e)
from pygame import draw, Surface
from pygame.locals import SRCALPHA
from math import pi
file_image = Surface((16, 16), SRCALPHA)
file_image.fill((0, 0, 0, 0))
draw.lines(file_image, (255, 255, 255, 255), False,
[[3, 15], [3, 1], [13, 1]], 2)
draw.line(file_image, (255, 255, 255, 255), [3, 7], [10, 7], 2)
folder_image = Surface((16, 16), SRCALPHA)
folder_image.fill((0, 0, 0, 0))
draw.line(folder_image, (255, 255, 255, 255), [3, 15], [3, 1], 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15], 0,
pi / 1.9, 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15],
3 * pi / 2, 2 * pi, 2)
return file_image, folder_image
def draw_ball():
# клубок
draw.circle(screen, gray, (300, 608), 40)
draw.arc(screen, (0, 0, 0), (290, 598, 10, 30), 2 * math.pi / 3,
3 * math.pi / 1.8)
draw.arc(screen, (0, 0, 0), (300, 595, 10, 35), 2 * math.pi / 3,
3 * math.pi / 1.8)
def draw(self, screen): # Center point draw.line(screen, (0,0,0), (self.center - self.left*5).as_tuple(), (self.center + self.left*5).as_tuple()) draw.line(screen, (0,0,0), self.center.as_tuple(), (self.center + self.forward*8).as_tuple()) # Sensor edges draw.line(screen, (255,0,0), self.center.as_tuple(), (self.center + self.forward*self.CAMERA_DEPTH + self.left*self.CAMERA_SIDE).as_tuple()) draw.line(screen, (255,0,0), self.center.as_tuple(), (self.center + self.forward*self.CAMERA_DEPTH + self.left*(-self.CAMERA_SIDE)).as_tuple()) draw.line(screen, (255,0,0), (self.center + self.forward*self.CAMERA_DEPTH + self.left*(-self.CAMERA_SIDE)).as_tuple(), \ (self.center + self.forward*self.CAMERA_DEPTH + self.left*self.CAMERA_SIDE).as_tuple()) # Circle # Angle we're pointing to: fwdangle = atan2(-self.forward.y, self.forward.x) fromangle = fwdangle + 0.86 toangle = fwdangle - 0.86 if (toangle < 0): toangle += 2*3.1415 if (fromangle > toangle): fromangle -= 2*3.1415 draw.arc(screen, (0,0,0), Rect(self.center.x - self.radius, self.center.y - self.radius, 2*self.radius, 2*self.radius), fromangle, toangle, 1) # Wheels for side in [1, -1]: draw.line(screen, (0,0,0), (self.center + self.left*self.WHEEL_RADIUS*side - self.forward*(30/5)).as_tuple(), (self.center + self.left*self.WHEEL_RADIUS*side + self.forward*(30/5)).as_tuple(), 5) # Sides for (f,t) in self.edges(): draw.line(screen, (0,0,0), f.as_tuple(), t.as_tuple())
def test_color_validation(self):
surf = pygame.Surface((10, 10))
colors = 123456, (1, 10, 100), RED # but not '#ab12df' or 'red' ...
points = ((0, 0), (1, 1), (1, 0))
# 1. valid colors
for col in colors:
draw.line(surf, col, (0, 0), (1, 1))
draw.aaline(surf, col, (0, 0), (1, 1))
draw.aalines(surf, col, True, points)
draw.lines(surf, col, True, points)
draw.arc(surf, col, pygame.Rect(0, 0, 3, 3), 15, 150)
draw.ellipse(surf, col, pygame.Rect(0, 0, 3, 6), 1)
draw.circle(surf, col, (7, 3), 2)
draw.polygon(surf, col, points, 0)
# 2. invalid colors
for col in ('invalid', 1.256, object(), None, '#ab12df', 'red'):
with self.assertRaises(TypeError):
draw.line(surf, col, (0, 0), (1, 1))
with self.assertRaises(TypeError):
draw.aaline(surf, col, (0, 0), (1, 1))
with self.assertRaises(TypeError):
draw.aalines(surf, col, True, points)
with self.assertRaises(TypeError):
draw.lines(surf, col, True, points)
with self.assertRaises(TypeError):
draw.arc(surf, col, pygame.Rect(0, 0, 3, 3), 15, 150)
with self.assertRaises(TypeError):
draw.ellipse(surf, col, pygame.Rect(0, 0, 3, 6), 1)
with self.assertRaises(TypeError):
draw.circle(surf, col, (7, 3), 2)
with self.assertRaises(TypeError):
draw.polygon(surf, col, points, 0)
def circle_mesh(obj, win):
draw.arc(win,
mesh_color,
(transform_x(obj.Pos.x) - obj.radius, transform_y(obj.Pos.y) -
obj.radius, obj.radius * 2, obj.radius * 2),
0.0,
2 * pi,
width=1)
def draw_ball():
"""
This function draws klubok
:return:
"""
draw.circle(screen, gray, (300, 608), 40)
draw.arc(screen, (0, 0, 0), (290, 598, 10, 30), 2*math.pi/3, 3*math.pi/1.8)
draw.arc(screen, (0, 0, 0), (300, 595, 10, 35), 2*math.pi/3, 3*math.pi/1.8)
def draw_partial_ellipse(top_left_x, top_left_y, width, height,
start_degrees, end_degrees, thickness = 1):
if thickness == 0:
thickness = 1
draw.arc(screen, color, pygame.Rect(int(top_left_x),
int(WINDOW_HEIGHT-top_left_y),
int(width), int(height)),
start_degrees * math.pi / 180, end_degrees * math.pi / 180,
int(thickness))
def draw_ball():
"""
This function draws the ball
return:
"""
draw.circle(screen, gray, (300, 548), 40)
draw.arc(screen, (0, 0, 0), (290, 538, 10, 30), 2 * math.pi / 3,
3 * math.pi / 1.8)
draw.arc(screen, (0, 0, 0), (300, 535, 10, 35), 2 * math.pi / 3,
3 * math.pi / 1.8)
def draw_seabirds(surf, color, length, height):
"""
Функция рисует птичку в небе
:param surf: поверхность, на которой нужно нарисовать птичку
:param color: цвет птички
:param length: ширина поверхности
:param height: высота поверхности
:return: функция ничего не возвращает
"""
for i in range(2):
draw.arc(surf, color, (0.13 * length, 0.033 * height + i, 100, 128), np.pi / 3, 7 * np.pi / 9)
draw.arc(surf, color, (0.235 * length, 0.02 * height + i, 100, 128), np.pi / 3, 7 * np.pi / 9)
def draw_tree(screen, x, y, size_x, size_y, color):
#the center(x,y) of the tree is the point in the middle of its trunk
#bottom part of trunk
pgd.line(screen, color, [x, y + int(size_y/60)],
[x, y + int(size_y/4)],
int(size_x/18))
pgd.line(screen, color, [x, y + int(17*size_y/60)],
[x, y + int(size_y/2)],
int(size_x/18))
#right and bottom branch
pgd.arc(screen, tree_color, [[x, y - int(5*size_y/57)],
[int(14*size_x/35), int(size_y/2 + 5*size_y/57)]],
6*m.pi/14, 4*m.pi/5, 4)
#top part of trunk
pgd.polygon(screen, tree_color, [[x, y],
[x - int(size_x/22), y - int(size_y/80)],
[x, y - int(17.5*size_y/116)],
[x + int(size_x/22), y - int(16*size_y/116)]])
pgd.polygon(screen, tree_color, [[x + int(size_x/80), y - int(size_y/6 + 0.5*size_y/100)],
[x - int(size_x/80), y - int(17*size_y/96)],
[x + int(size_x/18), y - int(size_y/2 + 1*size_y/100 )],
[x + int(7*size_x/86), y - int(size_y/2 + 0.5*size_y/100)]])
#leaves on right and bottom branch
delta_1 = int(5*size_x/37)
for i in range(3):
pgd.ellipse(screen, tree_color, [[x + delta_1, y - int(5*size_y/70)],
[int(size_x/40), int(5*size_y/35)]])
delta_1 += int(3*size_x/60)
#right and top branch and leaves on it
pgd.arc(screen, tree_color, [[x + int(5*size_x/80), y - int(size_y/2)],
[int(size_x - 5*size_x/40), int(30*size_y/35)]],
m.pi/2, 9*m.pi/10, 4)
delta_2x = int(8*size_x/24)
delta_2y = int(32*size_y/70)
for i in range(5):
pgd.ellipse(screen, tree_color, [[x + delta_2x, y - delta_2y],
[int(size_x/40), int(5*size_y/35)]])
delta_2x += int(3*size_x/80)
delta_2y += int(size_y/70)
#left top branch and leaves
pgd.arc(screen, tree_color, [[x - size_x, y - int(size_y/2)],
[size_x, size_y]],
m.pi/10, m.pi/2, 4)
delta_3x = int(2.5*size_x/8)
delta_3y = int(3.5*size_y/8)
for i in range(5):
pgd.ellipse(screen, tree_color, [[x - delta_3x, y - delta_3y],
[int(size_x/40), int(5*size_y/35)]])
delta_3x += int(3*size_x/80)
delta_3y += int(size_y/70)
#left top branch and leaves
pgd.arc(screen, tree_color, [[x - int(22*size_x/48), y],
[int(22*size_x/48), int(size_y/2)]],
m.pi/6, 2.5*m.pi/4, 4)
delta_4 = int(size_x/6)
for i in range(3):
pgd.ellipse(screen, tree_color, [[x - delta_4, y],
[int(size_x/40), int(5*size_y/35)]])
delta_4 += int(3*size_x/60)
def eskimo(x1, y1, length, height, hand):
""""
функция рисует эскимоса
:param x1: координата по х верхнего левого угла прямоугольника, в который вписан эллипс - голова эскимоса
:param y1: координата по y верхнего левого угла прямоугольника, в который вписан эллипс - голова эскимоса
:param length: ширина головы эскимоса
:param height: высота головы эскимоса
:param hand: если данный параметр = 0, то эскимос держит палку в правой руке, иначе - в левой
:return: функция ничего не возвращает
"""
if hand == 0:
draw.ellipse(screen, (149, 124, 110), (x1 - 0.3 * length, y1 + height, 0.55 * length, 0.25 * height))
draw.line(screen, (0, 0, 0), (x1 - 0.25 * length, y1), (x1 - 0.25 * length, y1 + 2 * height), 1)
tale = pygame.Surface((0.55 * length, 0.25 * height))
tale.set_colorkey('BLACK')
draw.ellipse(tale, (149, 124, 110), (0, 0, 0.5 * length, 0.25 * height))
tale2 = pygame.transform.rotate(tale, 330)
screen.blit(tale2, (x1 + 0.78 * length, y1 + 0.91 * height))
else:
draw.ellipse(screen, (149, 124, 110),
(x1 + 0.78 * length, y1 + 0.91 * height, 0.55 * length, 0.25 * height))
draw.line(screen, (0, 0, 0), (x1 + 1.2 * length, y1), (x1 + 1.2 * length, y1 + 2 * height), 1)
tale = pygame.Surface((0.55 * length, 0.25 * height))
tale.set_colorkey('BLACK')
draw.ellipse(tale, (149, 124, 110), (0, 0, 0.5 * length, 0.25 * height))
tale2 = pygame.transform.rotate(tale, 30)
screen.blit(tale2, (x1 - 0.3 * length, y1 + 0.9 * height))
draw.ellipse(screen, (228, 222, 219), (x1, y1, length, height))
draw.ellipse(screen, (149, 124, 110), (x1 - 0.1 * length, y1 + height / 2, 1.2 * length, 3 * height))
draw.rect(screen, (255, 255, 255), (x1 - 0.1 * length, y1 + height * 2, 1.2 * length, 2 * height))
draw.rect(screen, (111, 92, 82), (x1 + 0.35 * length, y1 + height / 2, 0.3 * length, 1.5 * height))
draw.ellipse(screen, (149, 124, 110),
(x1 + 0.12 * length, y1 + 1.85 * height, 0.25 * length, 0.5 * height))
draw.ellipse(screen, (149, 124, 110),
(x1 + 0.62 * length, y1 + 1.85 * height, 0.25 * length, 0.5 * height))
draw.ellipse(screen, (149, 124, 110), (x1, y1 + 1.8 * height + 0.4 * height, 0.35 * length, 0.2 * height))
draw.ellipse(screen, (149, 124, 110),
(x1 + 0.62 * length, y1 + 2.2 * height, 0.35 * length, 0.2 * height))
draw.ellipse(screen, (175, 157, 146), (x1 + 0.1 * length, y1 + 0.1 * height, 0.8 * length, 0.8 * height))
draw.ellipse(screen, (229, 218, 219), (x1 + 0.2 * length, y1 + 0.2 * height, 0.6 * length, 0.6 * height))
draw.line(screen, (0, 0, 0), (x1 + 0.32 * length, y1 + 0.35 * height),
(x1 + 0.42 * length, y1 + 0.4 * height), 2)
draw.line(screen, (0, 0, 0), (x1 + 0.64 * length, y1 + 0.35 * height),
(x1 + 0.54 * length, y1 + 0.4 * height), 2)
draw.arc(screen, (0, 0, 0), (x1 + 0.3 * length, y1 + 0.5 * height, 0.4 * length, 0.4 * height),
math.pi * 0.3, math.pi * 0.7,
2)
draw.rect(screen, (111, 92, 82), (x1 - 0.1 * length, y1 + 1.8 * height, 1.2 * length, 0.2 * length))
def update(self):
progress = (time.get_ticks() - self.start) / self.animation
if progress < 1:
import math
rect = (*self.image.get_abs_offset(), *self.image.get_size())
draw.arc(self.image, self.color, rect, 0, math.pi * 2 * progress,
int(rect[3] / 2))
self.actualizar = True
del math, rect
elif not self.complete:
import math
pos = tuple(map(lambda val: int(val / 2), self.image.get_size()))
draw.circle(self.image, self.color, pos, pos[1])
del math, pos
self.actualizar = True
self.complete = True
def arc(self, color, Rect, start_angle, stop_angle, width=1):
"""楕円の弧を描画します.
Parameters
----------
color : tuple of int
描画に使用される色を指定します.
Rect : pygame.Rect or tuple of float
楕円に外接する長方形を示すpygame.Rectオブジェクトもしくは座標を格納したタプル.
タプルは(x_min, y_min, width, height)の順番で値を格納する.
start_angle : float
弧の始点に対応する角度.
単位はラジアン.
stop_angle : float
弧の終点に対応する角度.
単位はラジアン.
width : float
描画される弧の太さ.
Returns
-------
rect : pygame.Rect
描画によって影響を受けた範囲を示すpygame.Rectオブジェクトを返します.
"""
return pyd.arc(self.pg.screen, color, Rect, start_angle, stop_angle, width)
def draw_screamer():
"""
This function draws a terrifying cat
:return:
"""
# background
draw.rect(screen, (0, 0, 0), (0, 0, 500, 700))
# face
draw.circle(screen, (255, 0, 0), (250, 350), 200)
# mouth
draw.arc(screen, (0, 0, 0), (110, 280, 280, 250), -3.1415, 0.03, 5)
draw.line(screen, (0, 0, 0), (110, 405), (390, 405), 5)
a = 128
b = 5
# teeth
draw.polygon(screen, (255, 255, 255), ((b + 110, a + 280), (b + 140, a + 340), (b + 155, a + 280),
(b + 165, a + 355), (b + 180, a + 280), (b + 200, a + 390),
(b + 230, a + 280), (b + 250, a + 390), (b + 275, a + 280),
(b + 285, a + 385), (b + 300, a + 280), (b + 330, a + 350),
(b + 350, a + 280), (b + 360, a + 335), (b + 380, a + 280)))
# eyes
draw.circle(screen, (240, 240, 240), (250 - 80, 350 - 60), 50)
draw.circle(screen, (240, 240, 240), (250 + 80, 350 - 60), 50)
# ears
draw.polygon(screen, (255, 0, 0), ((80, 300), (80, 100), (190, 180)))
draw.polygon(screen, (255, 0, 0), ((500 - 80, 300), (500 - 80, 100), (500 - 190, 180)))
# pupils
draw.ellipse(screen, (0, 0, 0), (160, 240, 20, 100))
draw.ellipse(screen, (0, 0, 0), (320, 240, 20, 100))
# moustache
draw.line(screen, (240, 100, 100), (120, 390), (10, 390), 5)
draw.line(screen, (240, 100, 100), (100, 350), (20, 300), 5)
draw.line(screen, (240, 100, 100), (100, 380), (10, 360), 5)
draw.line(screen, (240, 100, 100), (500 - 120, 390), (500 - 10, 390), 5)
draw.line(screen, (240, 100, 100), (500 - 100, 350), (500 - 20, 300), 5)
draw.line(screen, (240, 100, 100), (500 - 100, 380), (500 - 10, 360), 5)
def __draw_view_area(self, obj): color = obj.color if obj.mode is 'hunting': color = (255, obj.color[1], obj.color[2]) draw.line(self.window, color, obj.screen_position, obj.view_area[0]) draw.line(self.window, color, obj.screen_position, obj.view_area[1]) #draw.circle(self.window, obj.color, obj.screen_position, obj.view_area_radius, 1) r = obj.view_area_radius * X_CELL a = obj.view_area_angle draw.arc(self.window, color, (d((r, r), obj.screen_position), (r * 2, r * 2)), TRIGONOMETRY_SUCKS[obj.direction]['rad'] - a, TRIGONOMETRY_SUCKS[obj.direction]['rad'] + a)
def yurt(x1, y1, length, height):
"""
функция рисует юрту заданных размеров в заданном месте
:param x1: координата по х верхнего левого угла прямоугольника, в который будет вписана юрта
:param y1: координата по у верхнего левого угла прямоугольника, в который будет вписана юрта
:param length: ширина юрты
:param height: высота юрты, умноженная на 2
:return: функция ничего не возвращает
"""
draw.ellipse(screen, (230, 230, 230), (x1, y1, length, height))
draw.arc(screen, (0, 0, 0), (x1, y1, length, height), math.pi * 2, math.pi,
3)
draw.rect(screen, (255, 255, 255),
(x1, y1 + height / 2, length, height / 2))
draw.line(screen, (0, 0, 0), (x1, y1 + height / 2),
(x1 + length, y1 + height / 2), 1)
x2 = x1 + length / 8
xx2 = x2 - x1 - length / 2
l2 = length / 2
y2 = -(height / 2) * math.sqrt(1 - (xx2**2) / (l2**2)) + y1 + height / 2
draw.arc(screen, (0, 0, 0), (x2, y2 - 5, 0.75 * length, 10), math.pi,
math.pi * 2, 2)
x3 = x1 + length / 32
xx3 = x3 - x1 - length / 2
y3 = -(height / 2) * math.sqrt(1 - (xx3**2) / (l2**2)) + y1 + height / 2
draw.arc(screen, (0, 0, 0), (x3, y3 - 5, 0.9375 * length, 10), math.pi,
math.pi * 2, 2)
x4 = x1 + length / 4
xx4 = x4 - x1 - length / 2
y4 = -(height / 2) * math.sqrt(1 - (xx4**2) / (l2**2)) + y1 + height / 2
draw.arc(screen, (0, 0, 0), (x4, y4 - 5, 0.5 * length, 10), math.pi,
math.pi * 2, 2)
draw.line(screen, (0, 0, 0), (x3 + length / 5, y3),
(x1 + length / 5, y1 + height / 2), 1)
draw.line(screen, (0, 0, 0), (x3 + 2 * length / 5, y3),
(x1 + 3 * length / 7, y1 + height / 2), 1)
draw.line(screen, (0, 0, 0), (x3 + 3 * length / 5, y3),
(x1 + 4 * length / 6, y1 + height / 2), 1)
draw.line(screen, (0, 0, 0), (x3 + 4 * length / 5, y3),
(x1 + 7 * length / 8, y1 + height / 2), 1)
draw.line(screen, (0, 0, 0), (x2 + length / 4, y2),
(x3 + 2 * length / 7, y3 + 5), 1)
draw.line(screen, (0, 0, 0), (x2 + 4 * length / 7, y2),
(x3 + 5 * length / 7, y3 + 5), 1)
draw.line(screen, (0, 0, 0), (x4 + length / 10, y4),
(x2 + length / 8, y2 + 5), 1)
draw.line(screen, (0, 0, 0), (x4 + length / 4, y4),
(x2 + 3 * length / 7, y2 + 5), 1)
draw.line(screen, (0, 0, 0), (x4 + 5 * length / 11, y4),
(x2 + 8 * length / 12, y2 + 5), 1)
draw.line(screen, (0, 0, 0), (x1 + length / 2, y1),
(x4 + 4 * length / 12, y4 + 5), 1)
def draw_branches(screen, x, y, trunk_width, trunk_height, tree_color):
''' the center(x,y) of the tree is the point in the middle of its trunk '''
right_low_branch_x = x
right_low_branch_y = y - 5 * trunk_height // 57
right_low_branch_width = 14 * trunk_width // 35
right_low_branch_height = trunk_height // 2 + 5 * trunk_height // 57
right_low_branch_start_ang = 3 * m.pi // 7
right_low_branch_arc_size = 13 * m.pi // 35
pgd.arc(screen, tree_color,
[[right_low_branch_x, right_low_branch_y],
[right_low_branch_width, right_low_branch_height]],
right_low_branch_start_ang,
right_low_branch_start_ang + right_low_branch_arc_size, 4)
right_top_branch_x = x + trunk_width // 16
right_top_branch_y = y - trunk_height // 2
right_top_branch_width = trunk_width - trunk_width // 8
right_top_branch_height = 6 * trunk_height // 7
right_top_branch_start_ang = m.pi / 2
right_top_branch_arc_size = 2 * m.pi // 5
pgd.arc(screen, tree_color,
[[right_top_branch_x, right_top_branch_y],
[right_top_branch_width, right_top_branch_height]],
right_top_branch_start_ang,
right_top_branch_start_ang + right_top_branch_arc_size, 4)
left_top_branch_x = x - trunk_width
left_top_branch_y = y - trunk_height // 2
left_top_branch_width = trunk_width
left_top_branch_height = trunk_height
left_top_branch_start_ang = m.pi / 10
left_top_branch_arc_size = 2 * m.pi // 5
pgd.arc(screen, tree_color,
[[left_top_branch_x, left_top_branch_y],
[left_top_branch_width, left_top_branch_height]],
left_top_branch_start_ang,
left_top_branch_start_ang + left_top_branch_arc_size, 4)
left_low_branch_x = x - 11 * trunk_width // 24
left_low_branch_y = y
left_low_branch_width = 11 * trunk_width // 24
left_low_branch_height = trunk_height // 2
left_low_branch_start_ang = m.pi / 6
left_low_branch_arc_size = 11 * m.pi // 24
pgd.arc(screen, tree_color,
[[left_low_branch_x, left_low_branch_y],
[left_low_branch_width, left_low_branch_height]],
left_low_branch_start_ang,
left_low_branch_start_ang + left_low_branch_arc_size, 4)
def draw_bear_head(screen, x, y, scale):
w, h = 100 * scale, 60 * scale
rect = [int(c) for c in [x - w // 2, y - h // 2, w, h]]
# base
bordered_ellipse(screen, COLORS["grey"], rect, 2)
# eye and nose
dr.ellipse(screen, COLORS["black"],
[x - w // 6, y - h // 5, w // 8, h // 8])
dr.ellipse(screen, COLORS["black"],
[x + 4 * w // 9, y - h // 7, w // 8, h // 8])
# mouth
m_w, m_h = int(w * 1.1), h // 4
dx, dy = int(-7 * scale), int(3 * scale)
mouth_rect = [x - m_w // 2 + dx, y - m_h // 2 + dy, m_w, m_h]
dr.arc(screen, COLORS["black"], mouth_rect, 3 * np.pi / 2, 2 * np.pi)
# ear
e_x, e_y = x - 3 * w // 9, y - 3 * h // 9
e_w, e_h = w // 5, h // 5
ear_rect1 = [e_x - e_w // 2, e_y - e_h // 2, e_w, e_h]
ear_rect2 = [e_x - e_w // 2, e_y - e_h, e_w, e_h * 2]
dr.ellipse(screen, COLORS["grey"], ear_rect1)
dr.arc(screen, COLORS["black"], ear_rect1, 0, 1.1 * np.pi, 2)
dr.arc(screen, COLORS["black"], ear_rect2, 1.05 * np.pi, 2 * np.pi, 2)
def draw(self, screen):
# Center point
draw.line(screen, (0, 0, 0), (self.center - self.left * 5).as_tuple(),
(self.center + self.left * 5).as_tuple())
draw.line(screen, (0, 0, 0), self.center.as_tuple(),
(self.center + self.forward * 8).as_tuple())
# Sensor edges
draw.line(screen, (255, 0, 0), self.center.as_tuple(),
(self.center + self.forward * self.CAMERA_DEPTH +
self.left * self.CAMERA_SIDE).as_tuple())
draw.line(screen, (255, 0, 0), self.center.as_tuple(),
(self.center + self.forward * self.CAMERA_DEPTH + self.left *
(-self.CAMERA_SIDE)).as_tuple())
draw.line(screen, (255,0,0), (self.center + self.forward*self.CAMERA_DEPTH + self.left*(-self.CAMERA_SIDE)).as_tuple(), \
(self.center + self.forward*self.CAMERA_DEPTH + self.left*self.CAMERA_SIDE).as_tuple())
# Circle
# Angle we're pointing to:
fwdangle = atan2(-self.forward.y, self.forward.x)
fromangle = fwdangle + 0.86
toangle = fwdangle - 0.86
if (toangle < 0): toangle += 2 * 3.1415
if (fromangle > toangle):
fromangle -= 2 * 3.1415
draw.arc(
screen, (0, 0, 0),
Rect(self.center.x - self.radius, self.center.y - self.radius,
2 * self.radius, 2 * self.radius), fromangle, toangle, 1)
# Wheels
for side in [1, -1]:
draw.line(screen, (0, 0, 0),
(self.center + self.left * self.WHEEL_RADIUS * side -
self.forward * (30 / 5)).as_tuple(),
(self.center + self.left * self.WHEEL_RADIUS * side +
self.forward * (30 / 5)).as_tuple(), 5)
# Sides
for (f, t) in self.edges():
draw.line(screen, (0, 0, 0), f.as_tuple(), t.as_tuple())
def head():
s = 56
head_parameters = (
(dog_color, (x+s//2*n-s//2*abs(n), y, s*abs(n), s*abs(n)), (0, 0)),
(box_color, (x+s//2*n-s//2*abs(n), y, s*abs(n), s*abs(n)), (2, 2)),
(dog_color, (x-s//16*abs(n), y, s//8*abs(n), s//4*abs(n)), (0, 0)),
(box_color, (x-s//16*abs(n), y, s//8*abs(n), s//4*abs(n)), (2, 2)),
(dog_color, (x+s*n-s//16*abs(n), y, s//8*abs(n), s//4*abs(n)), (0, 0)),
(box_color, (x+s*n-s//16*abs(n), y, s//8*abs(n), s//4*abs(n)), (2, 2)),
(wh_color, (x+(s//8+s//8)*n-s//8*abs(n), y + s//4*abs(n), s//4*abs(n), s//8*abs(n)), (0, 0)),
(box_color, (x+(s//8+s//8)*n-s//8*abs(n), y + s//4*abs(n), s//4*abs(n), s//8*abs(n)), (1, 1)),
(bl_color, (x+int((s//4)*n), y+int((5*s//16)*abs(n)), int((s//16)*abs(n)), 0), (0, 0)),
(wh_color, (x+(5*s//8+s//8)*n-s//8*abs(n), y + s//4*abs(n), s//4*abs(n), s//8*abs(n)), (0, 0)),
(box_color, (x+(5*s//8+s//8)*n-s//8*abs(n), y + s//4*abs(n), s//4*abs(n), s//8*abs(n)), (1, 1)),
(bl_color, (x+int((3*s//4)*n), y+int((5*s//16)*abs(n)), int((s//16)*abs(n)), 0), (0, 0)),
(bl_color, (x+(s//4+0.75*s//3)*n-0.75*s//3*abs(n), y+3*s//4*abs(n), 1.5*s//3*abs(n), s//3*abs(n)), (m.pi//16, m.pi)),
(wh_color, [(x+s//3*n,y+4*s//5*abs(n)),(x+s//3*n,y+7*s//10*abs(n)),(x+7*s//18*n, y+15*s//20*abs(n))],(0, 0)),
(wh_color, [(x+(s-s//3)*n,y+4*s//5*abs(n)),(x+(s-s//3)*n,y+7*s//10*abs(n)),(x+(s-7*s//18)*n,y+15*s//20*abs(n))], (0, 0)),
)
'''
the sequence of drawing
the head is:
head(2 rects), 2 ears(each ear - 2 ellipses), 2 eyes(each eye - 2 ellipses and 1 circle),
mouth(1 arc), teeth(each tooth - 1 polygon)
'''
k = 1
for elem in head_parameters:
if k < 3:
pgd.rect(screen, elem[0], elem[1], elem[2][0])
elif k == 9 or k == 12:
pgd.circle(screen, elem[0], (elem[1][0], elem[1][1]), elem[1][2], elem[2][0])
elif k == 13:
pgd.arc(screen, elem[0], elem[1], elem[2][0], elem[2][1])
elif k > 13:
pgd.polygon(screen, elem[0], elem[1], elem[2][0])
else:
pgd.ellipse(screen, elem[0], elem[1], elem[2][0])
k = k + 1
def get_imgs():
"""Load an return the images used as file and folder icons."""
print "*** MCEDIT DEBUG: file_dialog:", __file__
print "*** MCEDIT DEBUG: directory:", os.path.dirname(__file__)
print "*** MCEDIT DEBUG: current directory:", os.getcwd()
try:
file_image = get_image('file.png', prefix='')
folder_image = get_image('folder.png', prefix='')
except Exception, e:
print "MCEDIT DEBUG: Could not load file dialog images."
print e
from pygame import draw, Surface
from pygame.locals import SRCALPHA
from math import pi
file_image = Surface((16, 16), SRCALPHA)
file_image.fill((0,0,0,0))
draw.lines(file_image, (255, 255, 255, 255), False, [[3, 15], [3, 1], [13, 1]], 2)
draw.line(file_image, (255, 255, 255, 255), [3, 7], [10, 7], 2)
folder_image = Surface((16, 16), SRCALPHA)
folder_image.fill((0,0,0,0))
draw.line(folder_image, (255, 255, 255, 255), [3, 15], [3, 1], 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15], 0, pi/1.9, 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15], 3*pi/2, 2*pi, 2)
def update(self, time):
self.delta = time
for comp in [x for x in self.components if x.active]:
# prepare style options
color = comp.style.get('color', common.BLACK)
width = comp.style.get('width', 1)
# draw debug objects
if comp.rect:
from pdb import set_trace
set_trace()
trans_rect = Rect(comp.rect.rect.x + comp.rect.anchor.body.x,
comp.rect.rect.y + comp.rect.anchor.body.y,
comp.rect.rect.w,
comp.rect.rect.h)
draw.rect(self.surface, color, trans_rect, width)
if comp.circle:
draw.circle(self.surface, color, comp.circle.pos,
comp.circle.radius, width)
if comp.ellipse:
draw.ellipse(self.surface, color, comp.ellipse.rect,
width)
if comp.arc:
draw.arc(self.surface, color, comp.arc.start,
comp.arc.end, width)
if comp.line:
draw.line(self.surface, color, comp.line.closed,
comp.line.points, width)
if comp.get_value:
text_val = str(comp.get_value())
if text_val != comp.last_value:
# fire event to update rendered graphic for this
comp.last_value = text_val
tu_event = GameEvent(UPDATETEXT, component=comp.text,
text=text_val)
self.delegate(tu_event)
def update(self, time):
self.delta = time
for comp in [x for x in self.components if x.active]:
# prepare style options
color = comp.style.get('color', common.BLACK)
width = comp.style.get('width', 1)
# draw debug objects
if comp.rect:
from pdb import set_trace
set_trace()
trans_rect = Rect(comp.rect.rect.x + comp.rect.anchor.body.x,
comp.rect.rect.y + comp.rect.anchor.body.y,
comp.rect.rect.w, comp.rect.rect.h)
draw.rect(self.surface, color, trans_rect, width)
if comp.circle:
draw.circle(self.surface, color, comp.circle.pos,
comp.circle.radius, width)
if comp.ellipse:
draw.ellipse(self.surface, color, comp.ellipse.rect, width)
if comp.arc:
draw.arc(self.surface, color, comp.arc.start, comp.arc.end,
width)
if comp.line:
draw.line(self.surface, color, comp.line.closed,
comp.line.points, width)
if comp.get_value:
text_val = str(comp.get_value())
if text_val != comp.last_value:
# fire event to update rendered graphic for this
comp.last_value = text_val
tu_event = GameEvent(UPDATETEXT,
component=comp.text,
text=text_val)
self.delegate(tu_event)
def head():
s = 56
head_parameters = (
(dog_color, (x, y, s, s), (0, 0)),
(box_color, (x, y, s, s), (2, 2)),
(dog_color, (x - s//10, y, s//5, s//3 ), (0, 0)),
(box_color, (x - s//10, y, s//5, s//3 ), (2, 2)),
(dog_color, (x + s - s//10, y, s//5, s//3 ), (0, 0)),
(box_color, (x + s - s//10, y, s//5, s//3 ), (2, 2)),
(wh_color, (x + s//8, y + s//4, s//4, s//8), (0, 0)),
(box_color, (x + s//8, y + s//4, s//4, s//8), (1, 1)),
(bl_color, (x + 3*s//16, y + 4*s//16, s//8, s//8), (0, 0)),
(wh_color, (x + 5*s//8, y + s//4, s//4, s//8), (0, 0)),
(box_color, (x + 5*s//8, y + s//4, s//4, s//8), (1, 1)),
(bl_color, (x + 11*s//16, y + 4*s//16, s//8, s//8), (0, 0)),
(bl_color, (x + s//4, y + 3*s//4, s//2, s//3), (m.pi//16, m.pi)),
(wh_color, [(x+s//3, y+4*s//5), (x+s//3, y+7*s//10), (x+7*s//18, y+15*s//20)], (0, 0)),
(wh_color, [(x+s-s//3, y+4*s//5), (x+s-s//3, y+7*s//10), (x+s-7*s//18, y+15*s//20)], (0, 0)),
)
'''
the sequence of drawing
the head is:
head(2 rects), 2 ears(each ear - 2 ellipses), 2 eyes(each eye - 3 ellipses),
mouth(1 arc), teeth(each tooth - 1 polygon)
'''
k = 1
for elem in head_parameters:
if k < 3:
pgd.rect(screen, elem[0], elem[1], elem[2][0])
elif k == 13:
pgd.arc(screen, elem[0], elem[1], elem[2][0], elem[2][1])
elif k > 13:
pgd.polygon(screen, elem[0], elem[1], elem[2][0])
else:
pgd.ellipse(screen, elem[0], elem[1], elem[2][0])
k = k + 1
def get_surface(self):
"""
Returns a Surface to use as this element's background, decorated with whichever effect function
is set on this widget having been applied.
"""
surface = Surface(self.rect.size)
surface.fill(self.current_background_color())
color = Color(*self.current_background_color())
highlight = color.correct_gamma(2)
shadow = color.correct_gamma(0.5)
arc(surface, shadow, self._circle_rect, RADIANS_TOPRIGHT,
RADIANS_BOTTOM_LEFT, self.bevel_depth)
arc(surface, highlight, self._circle_rect, RADIANS_BOTTOM_LEFT,
RADIANS_TOPRIGHT, self.bevel_depth)
if self.selected:
circle(surface, self.dot_color, self._circle_rect.center,
self.dot_radius)
for att in ["disabled", "focused", "hovering"]:
setattr(self._label, att, getattr(self, att))
surface.blit(self._label.get_surface(), self._label_rect.topleft)
return surface
def draw_cat_mouth(x0, y0, length, width):
"""
В функцию передаются параметры кота (функции cat в соответсвующие поля) и она рисует мордочку и усы
:param x0: координата верхнего левого угла кошки по оХ
:param y0: координата верхнего левого угла кошки по оУ
:param length: длина кошки (оХ)
:param width: ширина кошки (оУ)
"""
draw.polygon(screen, (243, 163, 238),
[(x0 + 0.154 * length, y0 + 0.35 * width),
(x0 + 0.18 * length, y0 + 0.35 * width),
(x0 + 0.166 * length, y0 + 0.39 * width)])
draw.polygon(screen, 'black', [(x0 + 0.154 * length, y0 + 0.35 * width),
(x0 + 0.18 * length, y0 + 0.35 * width),
(x0 + 0.166 * length, y0 + 0.39 * width)],
1)
draw.line(screen, 'black', [x0 + 0.166 * length, y0 + 0.39 * width],
[x0 + 0.166 * length, y0 + 0.415 * width])
draw.arc(
screen, 'black',
(x0 + 0.145 * length, y0 + 0.4 * width, 0.028 * length, 0.05 * width),
pi, 0)
draw.arc(
screen, 'black',
(x0 + 0.166 * length, y0 + 0.4 * width, 0.028 * length, 0.05 * width),
pi, 0)
draw.arc(
screen, 'black',
(x0 + 0.2 * length, y0 + 0.35 * width, 0.196 * length, 0.05 * width),
0, pi)
draw.arc(
screen, 'black',
(x0 + 0.22 * length, y0 + 0.365 * width, 0.196 * length, 0.05 * width),
0, pi)
draw.arc(
screen, 'black',
(x0 + 0.23 * length, y0 + 0.38 * width, 0.196 * length, 0.05 * width),
0, pi)
draw.arc(
screen, 'black',
(x0 - 0.084 * length, y0 + 0.35 * width, 0.196 * length, 0.05 * width),
0, pi)
draw.arc(screen, 'black', (x0 - 0.075 * length, y0 + 0.365 * width,
0.196 * length, 0.05 * width), 0, pi)
draw.arc(
screen, 'black',
(x0 - 0.084 * length, y0 + 0.38 * width, 0.196 * length, 0.05 * width),
0, pi)
def draw(self, screen): # The field is a rect in the center of the screen BLACK = (0,0,0) WHITE = (255,255,255) GREEN = (43,252,43) self.field.fill(GREEN) # Green fill draw.rect(self.field, WHITE, self.field.get_rect(), 20) # White border draw.rect(self.field, BLACK, self.field.get_rect(), 1) # Black border draw.rect(self.field, BLACK, (10, 10, self.cx-5-10, self.height-10-10), 1) # Black square (left) draw.rect(self.field, BLACK, (self.cx + 5, 10, self.cx-5-10, self.height-10-10), 1) # Black square (right) draw.circle(self.field, WHITE, (self.cx, self.cy), 80, 10) # Central circle (white) draw.circle(self.field, BLACK, (self.cx, self.cy), 80-10, 1) # Central circle (black, inner) draw.circle(self.field, BLACK, (self.cx, self.cy), 80, 1) # Central circle (black, outer) draw.line(self.field, WHITE, (self.cx-1, 0+1), (self.cx-1, self.height-2),10) # Central divider line (white) # Arcs #1 draw.arc(self.field, WHITE, (10 - 100, 265 - 100, 200, 200), 0, 3.1415/2, 10) # Left goal, upper arc, white filling draw.arc(self.field, BLACK, (10 - 100, 265 - 100, 200, 200), 0, 3.1415/2, 1) # Left goal, upper arc, black, outer draw.arc(self.field, BLACK, (10 - 100 + 10, 265 - 100 + 10, 200 - 20, 200 - 20), 0, 3.1415/2, 1) # Left goal, upper arc, black inner #2 draw.arc(self.field, WHITE, (10 - 100, 265 - 100 + 70, 200, 200), 3*3.1415/2, 2*3.1415, 10) # Left goal, lower arc, white filling draw.arc(self.field, BLACK, (10 - 100, 265 - 100 + 70, 200, 200), 3*3.1415/2, 2*3.1415, 1) # Left goal, lower arc, black, outer draw.arc(self.field, BLACK, (10 - 100 + 10, 265 - 100 + 10 + 70, 200 - 20, 200 - 20), 3*3.1415/4, 2*3.1415, 1) # Left goal, lower arc, black inner #3 draw.arc(self.field, WHITE, (self.width - 10 - 100, 265 - 100, 200, 200), 3.1415/2, 3.1415, 10) # Right goal, upper arc, white filling draw.arc(self.field, BLACK, (self.width - 10 - 100, 265 - 100, 200, 200), 3.1415/2, 3.1415, 1) # Right goal, upper arc, black, outer draw.arc(self.field, BLACK, (self.width - 10 - 100 + 10, 265 - 100 + 10, 200 - 20, 200 - 20), 3.1415/2, 3.1415, 1) # Left goal, upper arc, black inner #4 draw.arc(self.field, WHITE, (self.width - 10 - 100, 265 - 100 + 70, 200, 200), 3.1415, 3*3.1415/2, 10) # Right goal, lower arc, white filling draw.arc(self.field, BLACK, (self.width - 10 - 100, 265 - 100 + 70, 200, 200), 3.1415, 3*3.1415/2, 1) # Right goal, lower arc, black, outer draw.arc(self.field, BLACK, (self.width - 10 - 100 + 10, 265 - 100 + 10 + 70, 200 - 20, 200 - 20), 3.1415, 3*3.1415/2, 1) # Right goal, lower arc, black inner # Arc connectors draw.line(self.field, WHITE, (10 + 100 - 5, 265), (10 + 100 - 5, 265 + 70), 10) # Left goal, arc connector, white filling draw.line(self.field, BLACK, (10 + 100 - 10, 265), (10 + 100 - 10, 265 + 70), 1) # Left goal, arc connector, black inner draw.line(self.field, BLACK, (10 + 100, 265), (10 + 100, 265 + 70), 1) # Left goal, arc connector, black outer draw.line(self.field, WHITE, (self.width - 10 - 100 + 5, 265), (self.width - 10 - 100 + 5, 265 + 70), 10) # Right goal, arc connector, white filling draw.line(self.field, BLACK, (self.width - 10 - 100 + 10, 265), (self.width - 10 - 100 + 10, 265 + 70), 1) # Right goal, arc connector, black inner draw.line(self.field, BLACK, (self.width - 10 - 100, 265), (self.width - 10 - 100, 265 + 70), 1) # Right goal, arc connector, black outer # Left goal draw.rect(self.screen, (163, 163, 46), (self.field.get_offset()[0]-50, self.field.get_offset()[1]+self.cy-70, 50+10, 140), 0) text = self.font.render(str(self.scoreLeft), True, BLACK, (163, 163, 46)) textRect = text.get_rect() # Center the rectangle textRect.centerx = self.field.get_offset()[0]-50 + 25 + 5 textRect.centery = self.field.get_offset()[1]+self.cy # Blit the text self.screen.blit(text, textRect) # Right goal draw.rect(self.screen, (16, 57, 125), (self.field.get_offset()[0]+self.width-10, self.field.get_offset()[1]+self.cy-70, 50+10, 140), 0) text = self.font.render(str(self.scoreRight), True, WHITE, (16, 57, 125)) textRect = text.get_rect() textRect.centerx = self.field.get_offset()[0]+self.width - 10 + 30 textRect.centery = self.field.get_offset()[1]+self.cy self.screen.blit(text, textRect) # Cross in the middle #draw.line(self.field, BLACK, (self.cx-10, self.cy), (self.cx+10, self.cy)) #draw.line(self.field, BLACK, (self.cx, self.cy-10), (self.cx, self.cy+10)) for o in self.objects: o.draw(self.field)
def _draw(self, deco: List[Tuple[int, str, Any]], surface: 'pygame.Surface') -> None:
"""
Draw.
:param deco: Decoration list
:param surface: Pygame surface
:return: None
"""
if len(deco) == 0:
return
rect = self._obj.get_rect()
for d in deco:
dtype, decoid, data = d
if not self._decor_enabled[decoid]:
continue
if dtype == DECORATION_POLYGON:
points, color, filled, width, gfx, kwargs = data
points = self._update_pos_list(rect, decoid, points, **kwargs)
if gfx:
if filled:
gfxdraw.filled_polygon(surface, points, color)
else:
gfxdraw.polygon(surface, points, color)
else:
pydraw.polygon(surface, color, points, width)
elif dtype == DECORATION_CIRCLE:
points, r, color, filled, width, gfx, kwargs = data
points = self._update_pos_list(rect, decoid, points, **kwargs)
x, y = points[0]
if filled:
if gfx:
gfxdraw.filled_circle(surface, x, y, r, color)
else:
pydraw.circle(surface, color, (x, y), r)
else:
pydraw.circle(surface, color, (x, y), r, width)
elif dtype == DECORATION_SURFACE or dtype == DECORATION_BASEIMAGE or dtype == DECORATION_TEXT:
pos, surf, centered, kwargs = data
if isinstance(surf, pygame_menu.BaseImage):
surf = surf.get_surface(new=False)
pos = self._update_pos_list(rect, decoid, pos, **kwargs)[0]
surfrect = surf.get_rect()
surfrect.x += pos[0]
surfrect.y += pos[1]
if centered:
surfrect.x -= surfrect.width / 2
surfrect.y -= surfrect.height / 2
surface.blit(surf, surfrect)
elif dtype == DECORATION_ELLIPSE:
pos, rx, ry, color, filled, kwargs = data
pos = self._update_pos_list(rect, decoid, pos, **kwargs)[0]
if filled:
gfxdraw.filled_ellipse(surface, pos[0], pos[1], rx, ry, color)
else:
gfxdraw.ellipse(surface, pos[0], pos[1], rx, ry, color)
elif dtype == DECORATION_CALLABLE:
data(surface, self._obj)
elif dtype == DECORATION_CALLABLE_NO_ARGS:
data()
elif dtype == DECORATION_TEXTURE_POLYGON:
pos, texture, tx, ty, kwargs = data
pos = self._update_pos_list(rect, decoid, pos, **kwargs)
if isinstance(texture, pygame_menu.BaseImage):
texture = texture.get_surface()
gfxdraw.textured_polygon(surface, pos, texture, tx, ty)
elif dtype == DECORATION_ARC:
points, r, ia, fa, color, width, gfx, kwargs = data
points = self._update_pos_list(rect, decoid, points, **kwargs)
x, y = points[0]
rectarc = pygame.Rect(x - r, y - r, x + 2 * r, y + 2 * r)
if gfx:
gfxdraw.arc(surface, x, y, r, ia, fa, color)
else:
pydraw.arc(surface, color, rectarc, ia / (2 * pi), fa / (2 * pi), width)
elif dtype == DECORATION_PIE:
points, r, ia, fa, color, kwargs = data
points = self._update_pos_list(rect, decoid, points, **kwargs)
x, y = points[0]
gfxdraw.pie(surface, x, y, r, ia, fa, color)
elif dtype == DECORATION_BEZIER:
points, color, steps, kwargs = data
points = self._update_pos_list(rect, decoid, points, **kwargs)
gfxdraw.bezier(surface, points, steps, color)
elif dtype == DECORATION_RECT:
drect: 'pygame.Rect'
pos, drect, color, width, kwargs = data
pos = self._update_pos_list(rect, decoid, pos, **kwargs)[0]
drect = drect.copy()
drect.x += pos[0]
drect.y += pos[1]
pygame.draw.rect(surface, color, drect, width)
elif dtype == DECORATION_PIXEL:
pos, color, kwargs = data
pos = self._update_pos_list(rect, decoid, pos, **kwargs)[0]
gfxdraw.pixel(surface, pos[0], pos[1], color)
elif dtype == DECORATION_LINE:
pos, color, width, kwargs = data
pos = self._update_pos_list(rect, decoid, pos, **kwargs)
pydraw.line(surface, color, pos[0], pos[1], width)
else:
raise ValueError('unknown decoration type')
def budka_plus_cep():
'''
Draw the home for dogs
:return:
'''
draw.polygon(screen, (235, 191, 0),
[[350, 450], [350, 650], [500, 700], [550, 650], [550, 450], [450, 300], [400, 350]])
draw.aalines(screen, BLACK, False,
[[350, 450], [350, 650], [500, 700], [550, 650], [550, 450], [450, 300], [400, 350], [500, 500],
[500, 700]])
draw.aalines(screen, BLACK, False, [[400, 350], [350, 450], [500, 500], [550, 450]])
draw.ellipse(screen, BLACK, (375, 500, 100, 150))
draw.arc(screen, YELLOW, (355, 610, 15, 30), 0, pi, 4)
draw.arc(screen, YELLOW, (355, 610, 15, 30), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (357, 630, 15, 30), 0, pi, 4)
draw.arc(screen, YELLOW, (357, 630, 15, 30), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (355, 650, 15, 30), 0, pi, 4)
draw.arc(screen, YELLOW, (355, 650, 15, 30), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (345, 665, 30, 15), 0, pi, 4)
draw.arc(screen, YELLOW, (345, 665, 30, 15), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (325, 663, 30, 15), 0, pi, 4)
draw.arc(screen, YELLOW, (325, 663, 30, 15), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (305, 665, 30, 15), 0, pi, 4)
draw.arc(screen, YELLOW, (305, 665, 30, 15), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (285, 663, 30, 15), 0, pi, 4)
draw.arc(screen, YELLOW, (285, 663, 30, 15), pi, 2 * pi, 4)
draw.arc(screen, YELLOW, (265, 665, 30, 15), 0, pi, 4)
draw.arc(screen, YELLOW, (265, 665, 30, 15), pi, 2 * pi, 4)
folder_image = image.load("folder.png")
except Exception, e:
print "MCEDIT DEBUG: Could not load file dialog images."
print e
from pygame import draw, Surface
from pygame.locals import SRCALPHA
from math import pi
file_image = Surface((16, 16), SRCALPHA)
file_image.fill((0, 0, 0, 0))
draw.lines(file_image, (255, 255, 255, 255), False, [[3, 15], [3, 1], [13, 1]], 2)
draw.line(file_image, (255, 255, 255, 255), [3, 7], [10, 7], 2)
folder_image = Surface((16, 16), SRCALPHA)
folder_image.fill((0, 0, 0, 0))
draw.line(folder_image, (255, 255, 255, 255), [3, 15], [3, 1], 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15], 0, pi / 1.9, 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15], 3 * pi / 2, 2 * pi, 2)
else: # windows
file_image = image.load("file.png")
folder_image = image.load("folder.png")
class DirPathView(Widget):
def __init__(self, width, client, **kwds):
Widget.__init__(self, **kwds)
self.set_size_for_text(width)
self.client = client
def draw(self, surf):
frame = self.get_margin_rect()
image = self.font.render(self.client.directory, True, self.fg_color)
def arc(self, color, rect, start, stop, width=1, screen=False):
rect = rect if screen else self._rect_to_screen(rect)
return draw.arc(self.surface, color, rect, start, stop, width)
def __draw_dist_circle__(self, r, line_width):
loc_x = int(WIDTH / 2) - int(r)
loc_y = AP_POS - r
arc = (loc_x, loc_y, 2 * r, 2 * r)
pgD.arc(self.gD, WHITE, arc, -1.1 * pi, pi, line_width)
return
newTiles(city,startPos,tileDimX,tileDimY)
print(playerStart,endPos)
npcs = []
total = 1500
for n in range(total):
start, end = None,None
while start == end:
start = getIntersectionNear(roads,(randint(-100,100),randint(-100,100)))
end = getIntersectionNear(roads,(randint(-100,100),randint(-100,100)))
npcs.append(npc(start,end,roads,random() < -1))
draw.arc(screen,(255,255,255),((width/2-50,height/2-50),(100,100)),0,((n/total)*math.pi*2),4)
pygame.display.flip()
frames = 0
while 1:
floatingPos[0] = player.pos[0]
floatingPos[1] = player.pos[1]
cameraPos = (round(floatingPos[0]),round(floatingPos[1])) #floatingPos is required since cameraPos must be int but I need slower movement.
screen.fill(black)
#print("PLAYER AT ",tileAt(cameraPos), "NPC AT ", tileAt(test.pos))
frames+=1
newTiles(city,(int(cameraPos[0]/tileSize),int(cameraPos[1]/tileSize)),tileDimX*2,tileDimY*2)
#addRoads(city)
except Exception as e:
print("MCEDIT DEBUG: Could not load file dialog images.")
print(e)
from pygame import draw, Surface
from pygame.locals import SRCALPHA
from math import pi
file_image = Surface((16, 16), SRCALPHA)
file_image.fill((0, 0, 0, 0))
draw.lines(file_image, (255, 255, 255, 255), False,
[[3, 15], [3, 1], [13, 1]], 2)
draw.line(file_image, (255, 255, 255, 255), [3, 7], [10, 7], 2)
folder_image = Surface((16, 16), SRCALPHA)
folder_image.fill((0, 0, 0, 0))
draw.line(folder_image, (255, 255, 255, 255), [3, 15], [3, 1], 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15], 0,
pi / 1.9, 2)
draw.arc(folder_image, (255, 255, 255, 255), [0, 1, 13, 15],
3 * pi / 2, 2 * pi, 2)
else: # windows
# file_image = image.load(os.path.join(getDataDir(), 'file.png'))
# folder_image = image.load(os.path.join(getDataDir(), 'folder.png'))
file_image = image.load(getDataFile('file.png'))
folder_image = image.load(getDataFile('folder.png'))
class DirPathView(Widget):
def __init__(self, width, client, **kwds):
Widget.__init__(self, **kwds)
self.set_size_for_text(width)
self.client = client
def knit(x0, y0, r, surface):
"""
Функция отрисовки клубо44ка
:param x0: центр клубочка по оХ
:param y0: центр клубочка оУ
:param r: радиус клубочка
:param surface: вспомогательная поверхность для отрисовки клубка
"""
draw.circle(surface, 'grey', (x0, y0), r)
draw.circle(surface, (0, 0, 1), (x0, y0), r, 1)
draw.arc(surface, (1, 1, 1),
(x0 - 0.75 * r, y0 - 0.5 * r, 1.62 * r, 1.75 * r), 0.1 * pi,
0.55 * pi)
draw.arc(surface, (1, 1, 1),
(x0 - 0.875 * r, y0 - 0.375 * r, 1.62 * r, 1.75 * r), 0.1 * pi,
0.55 * pi)
draw.arc(surface, (1, 1, 1),
(x0 - 0.75 * r, y0 - 0.75 * r, 1.62 * r, 1.75 * r), 0.1 * pi,
0.6 * pi)
draw.arc(surface, (1, 1, 1),
(x0 - 0.375 * r, y0 - 0.375 * r, 1.5 * r, 1.62 * r), 0.7 * pi,
1.1 * pi)
draw.arc(surface, (1, 1, 1),
(x0 - 0.25 * r, y0 - 0.25 * r, 1.5 * r, 1.62 * r), 0.7 * pi,
1.1 * pi)
draw.arc(surface, (1, 1, 1),
(x0 - 0.125 * r, y0 - 0.125 * r, 1.5 * r, 1.62 * r), 0.8 * pi,
1.1 * pi)
draw.arc(surface, 'grey',
(x0 - 1.875 * r, y0 - 0.5 * r, 1.75 * r, 1.87 * r), 1.3 * pi,
1.8 * pi)
draw.arc(surface, 'grey', (x0 - 3.225 * r, y0 + 0.9 * r, 2 * r, 1.5 * r),
0.2 * pi, 0.8 * pi)
def head():
'''
draw the head of the dog
:return:
'''
draw.rect(SnoopDogg, (153, 102, 0), (45, 545, 80, 80)) # морда
draw.aalines(SnoopDogg, BLACK_KOSTYL, True, [[45, 545], [125, 545], [125, 625], [45, 625]])
draw.ellipse(SnoopDogg, (153, 102, 0), (30, 545, 20, 30)) # left ear
draw.arc(SnoopDogg, BLACK_KOSTYL, (30, 545, 20, 30), pi, 2 * pi, 1)
draw.arc(SnoopDogg, BLACK_KOSTYL, (30, 545, 20, 30), 0, pi, 1)
draw.ellipse(SnoopDogg, (153, 102, 0), (120, 545, 20, 30)) # right ear
draw.arc(SnoopDogg, BLACK_KOSTYL, (120, 545, 20, 30), pi, 2 * pi, 1)
draw.arc(SnoopDogg, BLACK_KOSTYL, (120, 545, 20, 30), 0, pi, 1)
draw.ellipse(SnoopDogg, WHITE, (100, 570, 20, 15)) # right zrachok
draw.arc(SnoopDogg, BLACK_KOSTYL, (100, 570, 20, 15), pi, 2 * pi, 2)
draw.arc(SnoopDogg, BLACK_KOSTYL, (100, 570, 20, 15), 0, pi, 2)
draw.ellipse(SnoopDogg, WHITE, (50, 570, 20, 15)) # left zrachok
draw.arc(SnoopDogg, BLACK_KOSTYL, (50, 570, 20, 15), pi, 2 * pi, 2)
draw.arc(SnoopDogg, BLACK_KOSTYL, (50, 570, 20, 15), 0, pi, 2)
draw.ellipse(SnoopDogg, BLACK_KOSTYL, (55, 575, 5, 5)) # tocka right
draw.ellipse(SnoopDogg, BLACK_KOSTYL, (110, 575, 5, 5)) # tocka left
draw.arc(SnoopDogg, BLACK_KOSTYL, (65, 590, 40, 20), pi, 2 * pi, 2) # mouth
draw.polygon(SnoopDogg, WHITE, [[70, 605], [70, 615], [75, 610]]) # left tooth
# animation is here
draw.ellipse(SnoopDogg, (66, 170, 255), (70, 615 + i, 5, 5))
draw.ellipse(SnoopDogg, (66, 170, 255), (100, 615 + k, 5, 5))
draw.polygon(SnoopDogg, WHITE, [[100, 605], [100, 615], [95, 610]]) # right tooth
draw.aalines(SnoopDogg, BLACK_KOSTYL, True, [[70, 605], [70, 615], [75, 610]])
draw.aalines(SnoopDogg, BLACK_KOSTYL, True, [[100, 605], [100, 615], [95, 610]])
def draw_cat(x, y):
"""
This function draws a cat, parameters determine where the left cat's ear is
:param x:
:param y:
:return:
"""
# body
draw.ellipse(screen, catColor, (x - 22 + 53, y - 364 + 353, 320, 140))
draw.ellipse(screen, (0, 0, 0), (x - 22 + 53, y - 364 + 353, 320, 140), 1)
# front legs
draw.ellipse(screen, catColor, (x - 22 + 43, y - 364 + 433, 28, 41))
draw.ellipse(screen, (0, 0, 0), (x - 22 + 43, y - 364 + 433, 28, 41), 1)
draw.ellipse(screen, catColor, (x - 22 + 70, y - 364 + 456, 70, 40))
draw.ellipse(screen, (0, 0, 0), (x - 22 + 70, y - 364 + 456, 70, 40), 1)
# head
draw.circle(screen, catColor, (x - 22 + 75, y - 364 + 413), 50)
draw.circle(screen, (0, 0, 0), (x - 22 + 75, y - 364 + 413), 50, 1)
# ears
draw.polygon(screen, pink, ((x - 22 + 22, y - 364 + 364), (x - 22 + 45, y - 364 + 373),
(x - 22 + 29, y - 364 + 391))) # left ear
draw.polygon(screen, red, ((x - 22 + 22, y - 364 + 364), (x - 22 + 45, y - 364 + 373),
(x - 22 + 29, y - 364 + 391)), 4) # left ear
draw.polygon(screen, pink, ((x - 22 + 113, y - 364 + 357), (x - 22 + 114, y - 364 + 382),
(x - 22 + 96, y - 364 + 368))) # right ear
draw.polygon(screen, red, ((x - 22 + 113, y - 364 + 357), (x - 22 + 114, y - 364 + 382),
(x - 22 + 96, y - 364 + 368)), 4) # right ear
# eyes
draw.circle(screen, orange, (x - 22 + 54, y - 364 + 413), 17) # left eye
draw.circle(screen, orange, (x - 22 + 96, y - 364 + 413), 17) # right eye
# pupils
draw.ellipse(screen, (0, 0, 0), (x - 22 + 56, y - 364 + 400, 4, 26)) # left pupil
draw.ellipse(screen, (0, 0, 0), (x - 22 + 98, y - 364 + 400, 4, 26)) # right pupil
# blick on left eye
surface = pygame.Surface((10, 10))
surface.fill(catColor)
draw.ellipse(surface, (255, 255, 255), (x - 22 + 0, y - 364 + 0, 5, 10))
a = pygame.transform.rotate(surface, 50)
screen.blit(a, (x - 22 + 43, y - 364 + 397))
draw.circle(screen, (0, 0, 0), (x - 22 + 54, y - 364 + 413), 17, 1)
# blick on right eye
surface1 = pygame.Surface((10, 10))
surface1.fill(catColor)
draw.ellipse(surface, (255, 255, 255), (x - 22 + 0, y - 364 + 0, 5, 10))
b = pygame.transform.rotate(surface, 50)
screen.blit(b, (x - 22 + 84, y - 364 + 397))
draw.circle(screen, (0, 0, 0), (x - 22 + 96, y - 364 + 413), 17, 1)
# nose
draw.polygon(screen, pink, ((x - 22 + 70, y - 364 + 433), (x - 22 + 78, y - 364 + 433),
(x - 22 + 74, y - 364 + 438)))
draw.polygon(screen, (0, 0, 0), ((x - 22 + 69, y - 364 + 432), (x - 22 + 79, y - 364 + 432),
(x - 22 + 74, y - 364 + 440)), 1)
# mouth
draw.aaline(screen, (0, 0, 0), (x - 22 + 74, y - 364 + 440), (x - 22 + 74, y - 364 + 447))
draw.arc(screen, (0, 0, 0), (x - 22 + 75, y - 364 + 444, 10, 6), math.pi, 0)
draw.arc(screen, (0, 0, 0), (x - 22 + 65, y - 364 + 444, 10, 6), math.pi, 0)
# tale
surface_tail = pygame.Surface((200, 100))
surface_tail.fill((0, 128, 0))
surface_tail.set_colorkey(catColor)
surface_tail.set_colorkey((0, 128, 0))
draw.ellipse(surface_tail, catColor, (0, 0, 180, 60))
draw.ellipse(surface_tail, (0, 0, 0), (0, 0, 180, 60), 1)
c = pygame.transform.rotate(surface_tail, -30)
screen.blit(c, (x - 22 + 280, y - 364 + 360))
# back legs
draw.circle(screen, catColor, (x - 22 + 340, y - 364 + 458), 42)
draw.circle(screen, (0, 0, 0), (x - 22 + 340, y - 364 + 458), 42, 1)
draw.ellipse(screen, catColor, (x - 22 + 362, y - 364 + 468, 28, 65))
draw.ellipse(screen, (0, 0, 0), (x - 22 + 362, y - 364 + 468, 28, 65), 1)
# moustache
draw.arc(screen, (0, 0, 0), (x - 22 + 78, y - 364 + 428, 120, 50), math.pi/3, 5*math.pi/6)
draw.arc(screen, (0, 0, 0), (x - 22 + 70, y - 364 + 434, 130, 50), math.pi/3, 4*math.pi/5.3)
draw.arc(screen, (0, 0, 0), (x - 22 + 62, y - 364 + 440, 140, 50), math.pi/3, 4*math.pi/5.55)
draw.arc(screen, (0, 0, 0), (x - 22 - 48, y - 364 + 425, 120, 50), math.pi/6, 5*math.pi/6)
draw.arc(screen, (0, 0, 0), (x - 22 - 56, y - 364 + 430, 130, 50), math.pi/5.4, 5*math.pi/6)
draw.arc(screen, (0, 0, 0), (x - 22 - 64, y - 364 + 435, 140, 50), math.pi/5.1, 5*math.pi/6)