def _get_raw_shadow(self):
target_img = self.target.get_image(self.capture_state)
r = target_img.get_rect()
#the shadow will be larger in order to make free space for fadeout.
r.inflate_ip(2*self.shadow_radius, 2*self.shadow_radius)
img = Surface(r.size)
img.fill((255, 255, 255, 255))
img.blit(target_img, (self.shadow_radius, self.shadow_radius))
if self.sun_angle <= 0.:
raise Exception("Sun angle must be greater than zero.")
elif self.sun_angle != 45. and self.vertical:
w, h = img.get_size()
new_h = h / tan(self.sun_angle * pi / 180.)
screen_size = functions.get_screen().get_size()
new_h = abs(int(min(new_h, max(screen_size))))
img = scale(img, (w, new_h))
if self.angle_mode == "flip":
img = flip(img, self.mode_value[0], self.mode_value[1])
elif self.angle_mode == "rotate":
img = rotate(img, self.mode_value)
else:
raise Exception("angle_mode not available: " + str(self.angle_mode))
shadow = pilgraphics.get_shadow(img,
radius=self.shadow_radius,
black=self.black,
alpha_factor=self.alpha_factor,
decay_mode=self.decay_mode,
color=self.color)
return shadow
def quadrado(self, canvas: pg.Surface, pos: tp.coord, tipo: str) -> None:
size = canvas.get_size()
quad = pg.Rect(1, 1, size[0] - 2, size[1] - 2)
canvas.fill(self.borda)
i, j = pos
match tipo:
case "vazio":
cor = self.vazio[(i + j) % 2 == 0]
case "click":
cor = self.click
case "movimento":
cor = self.movimento
case "especial":
cor = self.movimento
case "captura":
cor = self.movimento
case "xeque":
pg.draw.rect(canvas, self.vazio[(i + j) % 2 == 0], quad)
pg.draw.circle(
canvas,
self.xeque,
(canvas.get_size()[0] / 2, canvas.get_size()[0] / 2),
min(*canvas.get_size()) / 3,
)
return
case _:
cor = pg.Color(0, 0, 0)
pg.draw.rect(canvas, cor, quad)
def _calculate_layout(self, surface: pygame.Surface):
self.logger.debug(f'Re-calculating layout for {len(self.frames)} elements')
frame_sizes = [(f.width, f.height) for f in self.frames]
self.__layout = best_regular_screen_layout(frame_sizes, surface.get_size())
self.__last_layout_evaluation = time.time()
self.__number_of_elements = len(frame_sizes)
self.__surface_size = surface.get_size()
def draw(self, surface: pygame.Surface) -> List[MouseRegion]:
surface.fill(self.BG_COLOR)
if len(self.frames) == 0:
return []
if (len(self.frames) != self.__number_of_elements or
time.time() - self.__last_layout_evaluation > self.REEVALUATION_INTERVAL_SECONDS or
surface.get_size() != self.__surface_size):
self._calculate_layout(surface)
target_size = surface.get_size()
element_size = (int(target_size[0] / self.__layout[0]), int(target_size[1] / self.__layout[1]))
regions = []
for i, frame in enumerate(self.frames):
i_x = i % self.__layout[0]
i_y = int(i / self.__layout[0])
frame_surface = _opencv_to_pygame(frame)
target_rect = frame_surface.get_rect().fit(pygame.Rect(i_x * element_size[0], i_y * element_size[1],
*element_size))
target_surface = surface.subsurface(target_rect)
pygame.transform.scale(frame_surface, target_rect.size, target_surface)
self.after_draw_frame(i, frame, surface, target_surface)
regions.append(MouseRegion(frame.source, target_rect, (frame.width, frame.height)))
self.after_draw(surface)
return regions
def draw_board(screen: Surface, pos_x: int, pos_y: int, elem_size: int,
board: BoardState):
screen.fill(color)
dark = (0, 0, 0)
white = (255, 255, 255)
line_color = (182, 93, 37)
screen.blit(InputBox.FONT.render('GOMOKU', True, dark),
(0.7 * screen.get_size()[0], 0.1 * screen.get_size()[1]))
if abs(board.current_player) == 2:
winner = board.current_player
screen.blit(
InputBox.FONT.render(
('black' if winner == -2 else 'white') + ' player won!!!',
True, dark),
(0.7 * screen.get_size()[0], 0.2 * screen.get_size()[1]))
for y, x in product(range(14), range(14)):
position = pos_x + x * elem_size, pos_y + y * elem_size, elem_size, elem_size
pygame.draw.rect(screen, line_color, position, 2)
for y, x in product(range(15), range(15)):
figure = board.board[y, x]
if figure == 0:
continue
if figure > 0:
figure_color = dark
else:
figure_color = white
r = elem_size * 3 // 8
pygame.draw.circle(screen, figure_color,
((x + 1) * elem_size, (y + 1) * elem_size), r)
def add_element_interface(self, panel: pg.Surface, frame: pg.Surface):
self.panel = GameObject(panel, BaseVector(0, 0) * (.5, .93))
self.panel_frame = frame
h = panel.get_size()[0]
p = frame.get_size()[0]
m = h - p*9
r = (m//10, (m - m//10)//8)
self.slice = [r[1], h+1, p+r[0]]
def __init__(self, surface: pygame.Surface):
self._screen = surface
self._state = EditorState()
self._widgets = self._build_widgets()
self._uimanager = pygame_gui.UIManager(surface.get_size())
self._focus = Vec(surface.get_size()) // 2
self._camera = Camera(self._focus, surface.get_size())
self._camera.set_method(Follow(self._camera))
def rotateAroundPoint(surface: pg.Surface, point, rotate) -> pg.Surface:
offset = np.asarray(point) - np.asarray(surface.get_size()) / 2
size = np.array(surface.get_size()) + 2 * abs(offset)
sf = pg.Surface(size, pg.SRCALPHA)
dest = -offset + abs(offset)
sf.blit(surface, dest)
sf = pg.transform.rotate(sf, rotate)
return sf
def compare_surfaces(surf_a: pygame.Surface, surf_b: pygame.Surface):
if surf_a.get_size() != surf_b.get_size():
return False
for x in range(surf_a.get_size()[0]):
for y in range(surf_a.get_size()[1]):
if surf_a.get_at((x, y)) != surf_b.get_at((x, y)):
return False
return True
def __init__(self, main_screen: Surface, color='white', radius=7, speed=5):
super().__init__(main_screen.get_size(), SRCALPHA)
self.color = color
self.radius = radius
self.main_screen = main_screen
self.width, self.height = main_screen.get_size()
self.speed = speed
self.x = self.width // 2
self.y = self.height // 2
self.angle_degrees = rnd.randint(30, 150) + (rnd.randint(0, 1) * 180)
self.angle_radians = radians(self.angle_degrees)
def modify_raw(self, src: pygame.Surface, frame: int) -> pygame.Surface:
color = self.color(frame)
fac = self.fac(frame)
color[3] = int(fac * color[3])
surf = pygame.Surface(src.get_size())
color_surf = pygame.Surface(src.get_size(), pygame.SRCALPHA)
color_surf.fill(color)
surf.blit(src, (0, 0))
surf.blit(color_surf, (0, 0))
return surf
def find_colours(image: pygame.Surface) -> list:
"""This function is used to find all of the different colours in an image.
It will output a list of colours."""
list_of_colours = []
for x in range(image.get_size()[0]):
for y in range(image.get_size()[1]):
pos = (x, y)
pixel = image.get_at(pos)
if pixel not in list_of_colours:
list_of_colours.append(pixel)
image.set_at(pos, pixel)
return list_of_colours
def random_spawn(cls, screen: pygame.Surface, *groups, **kwargs):
"""Randomly spawns a zapper in a random location and orientation"""
instance = cls(screen=screen,
position=(0, 0),
direction=helper.chance(0.5),
*groups,
**kwargs)
instance.position = (screen.get_size()[0] - 1,
random.randrange(
0,
screen.get_size()[1] - instance.size[1]))
return instance
def change_colours(image: pygame.Surface, colour_to_change: pygame.Color,
target_colour: pygame.Color, new_file_name: str) -> pygame.Surface:
"""Function will convert a colour in an image into a different colour.
It will save the edited image to file in the asset folder, and return the image."""
for x in range(image.get_size()[0]):
for y in range(image.get_size()[1]):
pos = (x, y)
pixel_col = image.get_at(pos)
if pixel_col == colour_to_change:
pixel_col = target_colour
image.set_at(pos, pixel_col)
pygame.image.save(image, f"assets/{new_file_name}_re-skin.png")
return image
def render(self, ui_screen):
super().render(ui_screen)
# Generate a screen of the size of the map
map = self.get_manager(Manager.MAP)
map_screen = Surface((map.width * GRID_WIDTH, map.height * GRID_HEIGHT), SRCALPHA, 32)
SESSION.render(map_screen, ui_screen)
# Trim the screen to just the camera area
camera_x, camera_y = self.get_manager(Manager.PLAYER).get_camera_coords()
return map_screen.subsurface((camera_x, camera_y,
min(CAMERA_WIDTH, map_screen.get_size()[0]),
min(CAMERA_HEIGHT, map_screen.get_size()[1])))
def draw(self, screen: pg.Surface,
clock: pg.time.Clock) -> Optional[ScreenType]:
main_text = self.font.render('A Loo In the Dark', False,
(self.red, self.green, self.blue))
main_text_rec = main_text.get_rect(center=(screen.get_size()[0] // 2,
screen.get_size()[1] // 2))
screen.blit(main_text, main_text_rec)
creator_text = self.small_font.render('A JJ/RB/JJ Game', False,
(255, 255, 255))
creator_text_rec = creator_text.get_rect(
center=(screen.get_size()[0] // 2, screen.get_size()[1] // 2 + 70))
screen.blit(creator_text, creator_text_rec)
return None
def resize(self, parent: pygame.Surface):
"""Resize the surface and the rect's position, to a fraction of the parent (usually ...Window.image)"""
self.image.fill(self.color)
# new size is a fraction of the parents size
size = (int(parent.get_size()[0] * self.rel_size[0]), int(parent.get_size()[1] * self.rel_size[1]))
# scale surface to this new size
self.image = pygame.transform.scale(self.image, size)
# create new rect
self.rect = self.image.get_rect()
# position of rect is some fraction of the parents size relative to the parent surface
self.rect.centerx = parent.get_size()[0] * self.rel_pos[0]
self.rect.centery = parent.get_size()[1] * self.rel_pos[1]
def _draw_field(self, surface: pygame.Surface) -> None:
contents = self._contents_with_faller()
width, height = surface.get_size()
x_coord = 0
y_coord = 0
jewel_length = 0
if height > 2 * width:
x_coord = 0
y_coord = height / 2 - width
jewel_length = width / 6
pygame.draw.rect(surface, pygame.Color(100, 100, 100),
(x_coord, y_coord, width, 2 * width))
else:
x_coord = width / 2 - height / 4
y_coord = 0
jewel_length = height / 12
pygame.draw.rect(surface, pygame.Color(100, 100, 100),
(x_coord, y_coord, height / 2, height))
temp = x_coord
for row in range(len(contents)):
x_coord = temp
for col in range(len(contents[row])):
self._draw_jewel(surface, x_coord, y_coord, jewel_length,
contents[row][col])
x_coord += jewel_length
y_coord += jewel_length
def __init__(self, screen:pygame.Surface, environment:Environment, eventDisplay):
threading.Thread.__init__(self)
"""need one Surface and one simulation"""
self.screen=screen
self.environment=environment
self.eventDisplay=eventDisplay
self.size=screen.get_size()
self.background=(20,20,150) #never use yet
self.running = True
#definition du zoom
self.center=Vector(0,0)
self.radius=0
self.zoom=1
self.zoom_auto() #à # si vous voulez pas utiliser le zoom auto
self.clock= pygame.time.Clock()
#sauvegarde des events
#pour déplacer le centre, clique gauche continue
self.maintien_clique_gauche=False
self.position_souris_avant=Vector(0,0)
self.maintien_clique_droit=False
self.new_clique_Object=[]
self.pos_souris=[]
self.displayRadar=True
def finish(score: int, total: int, screen: pg.Surface, font: pg.font.Font,
background: pg.Surface):
screen.fill('black')
screen.blit(background, (0, 0))
screen.blit(background, (0, 300))
first_text = font.render('Вы набрали %d очков из %d' % (score, total),
True, pg.Color('red'))
second_text = font.render('Чтобы начать заново,', True, pg.Color('red'))
third_text = font.render('нажмите пробел', True, pg.Color('red'))
width, height = screen.get_size()
screen.blit(first_text,
(width // 2 - first_text.get_width() // 2, height // 2 -
first_text.get_height() // 2 - second_text.get_height()))
screen.blit(second_text,
(width // 2 - second_text.get_width() // 2, height // 2 -
second_text.get_height() // 2 + second_text.get_height()))
screen.blit(third_text,
(width // 2 - third_text.get_width() // 2, height // 2 -
second_text.get_height() // 2 + second_text.get_height() * 2))
pg.display.flip()
while True:
for event in pg.event.get():
if event.type == pg.QUIT:
return False
elif event.type == pg.KEYDOWN and event.key == pg.K_SPACE:
return True
def load_sprite(self,
loader: 'SpriteLoader',
surface: pg.Surface,
frame_info,
tag_info,
vars_=None):
self._loader = loader
if vars_ is None:
self.vars = {}
else:
self.vars = vars_
self._surf: pg.Surface = surface
# Surface or cropped surface size depending on whether is sprite sheet or not
self._size: tuple = surface.get_size()
self._cropped_surf: [pg.Surface] = None
self._transformed_surf: [pg.Surface] = None
self._frame_info: List[Frame] = frame_info
self._active_frame: [Frame] = None
self._tag_info: List[Tag] = tag_info
self._active_tag: [Tag] = None
self._cam_zoom = [1, 1]
self._transform_needed = True
# Set frame if in sprite sheet
self.set_frame(0)
self.predict_real_size()
def _inner_pre_draw(self, surface: Surface):
surface_width, surface_height = surface.get_size()
x_mid = surface_width / 2
pygame.draw.rect(surface, self.BUTTON_NORMAL_COLOR, (100, 120, surface_width - 200, surface_height - 240))
self._title.set_position_centered(x_mid, 60)
self._code_title.set_position_centered(x_mid - 200, 170)
self._graphics_title.set_position_centered(x_mid + 200, 170)
self._music_title.set_position_centered(x_mid - 200, 580)
self._sound_title.set_position_centered(x_mid + 200, 580)
surface.blit(self._music_text, (x_mid - 200 - self._music_text.get_width() / 2, 610))
surface.blit(self._sound_text, (x_mid + 200 - self._sound_text.get_width() / 2, 610))
self._return_button.set_position(20, surface_height - 20 - 50)
arts_y = 480
arts_x = x_mid - 300
for author in self._authors:
surface.blit(author["surface"], (arts_x + author["x_off"], arts_y - author["surface"].get_height()))
author["title"].set_position_centered(arts_x, arts_y + 30)
arts_x += 200
def apply_colour_to_surface(colour: pygame.Color,
shape_surface: pygame.Surface,
rect: Union[pygame.Rect, None] = None):
"""
Apply a colour to a shape surface by multiplication blend. This works best when the shape
surface is predominantly white.
:param colour: The colour to apply.
:param shape_surface: The shape surface to apply the colour to.
:param rect: A rectangle to apply the colour inside of.
"""
if rect is not None:
colour_surface = pygame.Surface(rect.size,
flags=pygame.SRCALPHA,
depth=32)
colour_surface.fill(colour)
shape_surface.blit(colour_surface,
rect,
special_flags=pygame.BLEND_RGBA_MULT)
else:
colour_surface = pygame.Surface(shape_surface.get_size(),
flags=pygame.SRCALPHA,
depth=32)
colour_surface.fill(colour)
shape_surface.blit(colour_surface, (0, 0),
special_flags=pygame.BLEND_RGBA_MULT)
def get_shadow(target_img, shadow_radius=2, black=255, color_format="RGBA",
alpha_factor=0.85, decay_mode="exponential", color=(0,0,0),
sun_angle=30., vertical=True, angle_mode="flip", mode_value=(False, True)):
r = target_img.get_rect()
#the shadow will be larger in order to make free space for fadeout.
r.inflate_ip(2*shadow_radius, 2*shadow_radius)
img = Surface(r.size)
img.fill((255, 255, 255, 255))
img.blit(target_img, (shadow_radius, shadow_radius))
if sun_angle <= 0.:
raise Exception("Sun angle must be greater than zero.")
elif sun_angle != 45. and vertical:
w, h = img.get_size()
new_h = h / tan(sun_angle * pi / 180.)
screen_size = functions.get_screen().get_size()
new_h = abs(int(min(new_h, max(screen_size))))
img = scale(img, (w, new_h))
if angle_mode == "flip":
img = flip(img, mode_value[0], mode_value[1])
elif self.angle_mode == "rotate":
img = rotate(img, mode_value)
else:
raise Exception("angle_mode not available: " + str(angle_mode))
shadow = _pilshadow(img,
radius=shadow_radius,
black=black,
alpha_factor=alpha_factor,
decay_mode=decay_mode,
color=color)
#
W, H = functions.get_screen_size()
shadow.set_alpha(-1, RLEACCEL)
return shadow.convert_alpha()
def apply_gradient_to_surface(self, input_surface: pygame.Surface, rect=None):
"""
Applies this gradient to a specified input surface using blending multiplication.
As a result this method works best when the input surface is a mostly white, stencil shape type surface.
:param input_surface:
:param rect: The rectangle on the surface to apply the gradient to.
"""
# scale the gradient up to the right size
input_surface_size = input_surface.get_size()
inverse_rotated_input = pygame.transform.rotate(input_surface, -self.angle_direction)
gradient_size = inverse_rotated_input.get_rect().size
gradient_surf = pygame.Surface(gradient_size, flags=pygame.SRCALPHA, depth=32)
pygame.transform.scale(self.gradient_surface, gradient_size, gradient_surf)
gradient_surf = pygame.transform.rotate(gradient_surf, self.angle_direction)
if rect is not None:
input_surface.set_clip(rect)
input_surface.blit(gradient_surf, rect, special_flags=pygame.BLEND_RGBA_MULT)
input_surface.set_clip(None)
else:
gradient_placement_rect = gradient_surf.get_rect()
gradient_placement_rect.center = (int(input_surface_size[0] / 2), int(input_surface_size[1] / 2))
input_surface.blit(gradient_surf, gradient_placement_rect, special_flags=pygame.BLEND_RGBA_MULT)
class Graphics:
'''
A class to store and manage rendering buffers.
Attributes:
core_data (CoreData): The current core state object
screen (Surface): The output display surface
canvas_buffer (Surface): The canvas' render buffer
ui_buffer (Surface): The UI's render buffer
overlay_buffer (Surface): The overlay's render buffer
'''
def __init__(self, core_data: CoreData, start_screen: bool = True):
'''
Initialize the Graphics object.
Parameters:
core_data: The current core state object
'''
self._core_data = core_data
if start_screen:
self._screen = display.set_mode(flags=FULLSCREEN)
else:
self._screen = Surface((1, 1))
self._core_data.screen_size = self._screen.get_size()
self._canvas_buffer = Surface(self._core_data.canvas_size)
self._ui_buffer = Surface(self.size, SRCALPHA)
self._overlay_buffer = Surface(self.size, SRCALPHA)
@property
def size(self) -> Tuple[int, int]:
'''Get the graphics size.'''
return self._core_data.screen_size
@property
def canvas_buffer(self) -> Surface:
'''Get the canvas graphics buffer.'''
self._canvas_buffer.fill((0, 0, 0))
return self._canvas_buffer
@property
def ui_buffer(self) -> Surface:
'''Get the UI graphics buffer.'''
self._ui_buffer.fill(SRCALPHA)
return self._ui_buffer
@property
def overlay_buffer(self) -> Surface:
'''Get the overlay graphics buffer.'''
self._overlay_buffer.fill(SRCALPHA)
return self._overlay_buffer
def render(self) -> None:
'''Render the canvas, UI, and overlay buffers to the display.'''
view_rect = Rect(self._core_data.view_pos, self._core_data.screen_size)
self._screen.blit(self._canvas_buffer, (0, 0), view_rect)
self._screen.blit(self._ui_buffer, (0, 0))
self._screen.blit(self._overlay_buffer, (0, 0))
display.update()
def makebackground(self, surface):
surface.fill((0,0,0))
template = Surface(2*(min(self.zoom.width, self.zoom.height),))
template.fill((0,0,0,255))
width,height = template.get_size()
ylim = surface.get_height()/height
xlim = surface.get_width()/width
data = self._data
noise = [[pnoise2(self._selected[1][0]+x,
self._selected[0][0]+y,
4, 0.85) * 50
for x in range(xlim)]
for y in range(ylim)]
hmin = hmax = 0
for y in range(ylim):
for x in range(xlim):
yd = len(data)*float(y)/ylim
xd = len(data[0])*float(x)/xlim
h = self._height(data, yd, xd)
n = noise[y][x]
if h < 0:
h += -n if n > 0 else n
else:
h += n if n > 0 else -n
if h < hmin:
hmin = h
if h > hmax:
hmax = h
self.rects = []
for y in range(ylim):
for x in range(xlim):
block = template.copy()
yd = len(data)*float(y)/ylim
xd = len(data[0])*float(x)/xlim
h = self._height(data, yd, xd)
n = noise[y][x]
if h < 0:
h += -n if n > 0 else n
else:
h += n if n > 0 else -n
if h < 0:
color = 0, 0, int(255 * (1 - h/hmin))
else:
color = 0, int(255 * h/hmax), 0
block.fill(color)
if self.selection:
if self.selection[0][0] <= yd <= self.selection[0][1]:
if self.selection[1][0] <= xd <= self.selection[1][1]:
block.fill((255,0,0,32),
special_flags = BLEND_ADD)
rect = Rect(x*width, y*height, width, height)
surface.blit(block, rect.topleft)
self.rects.append((rect, (yd, xd)))
def __init__(self, center: tuple, size: int, direction: pg.Vector2,
win: pg.Surface):
"""
asteroid class
"""
# Call the parent class (Sprite) constructor
super().__init__()
sizes = [40, 60, 80, 100]
speeds = [0.16, 0.12, 0.08, 0.05]
self.radius = sizes[size] / 2
self.size = size
self.speed = speeds[size]
# bullet image and rect
self.image = pg.image.load(f'images/Asteroid_{size+1}.png')
self.rect = self.image.get_rect()
# starting coordenates
self.center = copy.copy(center)
self.rect.center = copy.copy(center)
# direction Vector2
self.direction = copy.copy(direction)
# window and window dimensions
self.win = win
self.WINDOW_WIDTH, self.WINDOW_HEIGHT = win.get_size()
def _get_raw_shadow(self):
target_img = self.target.get_image(self.capture_state)
r = target_img.get_rect()
#the shadow will be larger in order to make free space for fadeout.
r.inflate_ip(2 * self.shadow_radius, 2 * self.shadow_radius)
img = Surface(r.size)
img.fill((255, 255, 255, 255))
img.blit(target_img, (self.shadow_radius, self.shadow_radius))
if self.sun_angle <= 0.:
raise Exception("Sun angle must be greater than zero.")
elif self.sun_angle != 45. and self.vertical:
w, h = img.get_size()
new_h = h / tan(self.sun_angle * pi / 180.)
screen_size = functions.get_screen().get_size()
new_h = abs(int(min(new_h, max(screen_size))))
img = scale(img, (w, new_h))
if self.angle_mode == "flip":
img = flip(img, self.mode_value[0], self.mode_value[1])
elif self.angle_mode == "rotate":
img = rotate(img, self.mode_value)
else:
raise Exception("angle_mode not available: " +
str(self.angle_mode))
shadow = pilgraphics.get_shadow(img,
radius=self.shadow_radius,
black=self.black,
alpha_factor=self.alpha_factor,
decay_mode=self.decay_mode,
color=self.color)
return shadow
def __updateTankSurface(self, surface: Surface, color: Color,
direction: math.Vector2):
surface.fill((0, 0, 0, 0))
# rect inside surface
surfaceSize = surface.get_size()
surfaceRect = Rect(0, 0, surfaceSize[0], surfaceSize[1])
tankRect = Rect(0, 0, self.size[0], self.size[1])
diff = math.Vector2(surfaceRect.center) - math.Vector2(tankRect.center)
tankRect.move_ip(diff)
temp = surface.copy()
draw.rect(temp, color, tankRect)
# apply tank direction to surface
degree = -math.Vector2(0, 1).angle_to(direction)
temp = transform.rotate(temp, degree)
# temp was enlarged by rotate (wtf):
# calculate diff so that temp surface is positioned outside
# of the destination surface below
tempRectSize = temp.get_size()
diff = math.Vector2(tempRectSize) - math.Vector2(surfaceSize)
# copy back wanted portion from rotation
surface.blit(temp, -diff / 2)
def make_background(surf: pygame.Surface, resolution):
result = pygame.Surface(resolution)
x, y = surf.get_size()
for i in range(0, resolution[0], x):
for j in range(0, resolution[1], y):
result.blit(surf, (i, j))
return result
def main(self, screen):
clock = pygame.time.Clock()
background = Surface(screen.get_size())
background.blit(construct_nightmare(background.get_size()), (0, 0))
self.matris = Matris()
matris_border = Surface((MATRIX_WIDTH * BLOCKSIZE + BORDERWIDTH * 2,
VISIBLE_MATRIX_HEIGHT * BLOCKSIZE + BORDERWIDTH * 2))
matris_border.fill(BORDERCOLOR)
while 1:
dt = clock.tick(45)
self.matris.update((dt / 1000.) if not self.matris.paused else 0)
if self.matris.gameover:
return
tricky_centerx = WIDTH - (WIDTH - (MATRIS_OFFSET + BLOCKSIZE *
MATRIX_WIDTH + BORDERWIDTH * 2)) / 2
background.blit(matris_border, (MATRIS_OFFSET, MATRIS_OFFSET))
background.blit(self.matris.surface, (MATRIS_OFFSET + BORDERWIDTH,
MATRIS_OFFSET + BORDERWIDTH))
nextts = self.next_tetromino_surf(self.matris.surface_of_next_tetromino)
background.blit(nextts, nextts.get_rect(top = MATRIS_OFFSET,
centerx = tricky_centerx))
infos = self.info_surf()
background.blit(infos, infos.get_rect(bottom = HEIGHT - MATRIS_OFFSET,
centerx = tricky_centerx))
screen.blit(background, (0, 0))
pygame.display.flip()
def resize(self, parent: pygame.Surface):
"""Resize the surface and the rect's position, maintaining the aspect_ratio"""
self.image.fill(self.color)
max_size = list(parent.get_size())
# reduce max size down dependant on padding
max_size[0] *= self.padding
max_size[1] *= self.padding
current_size = [1, 1]
# search for the max size we can grow to, while not overflowing parent
overflown = False
while not overflown:
# increase size of image while maintaining aspect ratio
current_size[0] += self.aspect_ratio[0]
current_size[1] += self.aspect_ratio[1]
# if this new size is >= to the size of our container,
if current_size[0] >= max_size[0] or current_size[1] >= max_size[1]:
# scale surface and rect to this new found size
self.image = pygame.transform.scale(self.image, current_size)
self.rect = self.image.get_rect()
# set position of rect to a fraction of the size of parent
# after removing the shrinking effect of the padding variable
self.rect.centerx = (max_size[0] / self.padding) * self.pos[0]
self.rect.centery = (max_size[1] / self.padding) * self.pos[1]
overflown = True
# x and y offset
self.offset[0] = (parent.get_width() - self.rect.w) // 2
self.offset[1] = (parent.get_height() - self.rect.h) // 2
def next_tetromino_surf(self, tetromino_surf):
area = Surface((BLOCKSIZE * 5, BLOCKSIZE * 5))
area.fill(BORDERCOLOR)
area.fill(BGCOLOR, Rect(BORDERWIDTH, BORDERWIDTH,
BLOCKSIZE*5-BORDERWIDTH*2, BLOCKSIZE*5-BORDERWIDTH*2))
areasize = area.get_size()[0]
tetromino_surf_size = tetromino_surf.get_size()[0]
center = areasize / 2 - tetromino_surf_size / 2
area.blit(tetromino_surf, (center, center))
return area
def blit_next_tetromino(self, tetromino_surf):
"""
Draws the next tetromino in a box to the side of the board
"""
area = Surface((BLOCKSIZE*5, BLOCKSIZE*5))
area.fill(BORDERCOLOR)
area.fill(BGCOLOR, Rect(BORDERWIDTH, BORDERWIDTH, BLOCKSIZE*5-BORDERWIDTH*2, BLOCKSIZE*5-BORDERWIDTH*2))
areasize = area.get_size()[0]
tetromino_surf_size = tetromino_surf.get_size()[0]
# ^^ I'm assuming width and height are the same
center = areasize/2 - tetromino_surf_size/2
area.blit(tetromino_surf, (center, center))
screen.blit(area, area.get_rect(top=MATRIS_OFFSET, centerx=TRICKY_CENTERX))
class Block(sprite.Sprite):
""" Base Block Class """
def __init__(self, pos, is_end):
sprite.Sprite.__init__(self)
self.pos = pos
self.grid_pos = tuple([x/40 for x in self.pos])
self.image = Surface((40, 40)).convert()
self.color = (125, 125, 125)
self.image.fill((255, 255, 255))
self.rect = Rect(self.pos, self.image.get_size())
self.is_shown = False
self.is_path = False
self.neighbors = set()
self.path_value = 0
self.is_end = is_end
def get_neighbors(self, lst):
for b in lst:
if self in b:
a = self
# Left
if b.index(a) != 0:
to_add = b[b.index(a)-1]
if to_add != self and not to_add.is_shown:
self.neighbors.add(b[b.index(a)-1])
# Right
if b.index(a) != len(b)-1:
to_add = b[b.index(a)+1]
if to_add != self and not to_add.is_shown:
self.neighbors.add(b[b.index(a)+1])
# Above
if lst.index(b) != 0:
to_add = lst[lst.index(b)-1][b.index(a)]
if to_add != self and not to_add.is_shown:
self.neighbors.add(lst[lst.index(b)-1][b.index(a)])
# Below
if lst.index(b) != len(lst)-1:
to_add = lst[lst.index(b)+1][b.index(a)]
if to_add != self and not to_add.is_shown:
self.neighbors.add(lst[lst.index(b)+1][b.index(a)])
class Island(WorldObject): def __init__(self, size, color, n = 20, ): super(Island, self).__init__() self.buffer = Surface(size) self.pointlist = [] self.heights = [] self.n = n self.color = color def redraw(self): self.pointlist = [] self.heights = [] if not self.pointlist: self.generate_terrain(self.buffer.get_size()) if self.color: draw.polygon(self.buffer, white, self.pointlist) else: draw.polygon(self.buffer, black, self.pointlist) draw.lines(self.buffer, white, True, self.pointlist) #draw.lines(screen, [255, 0, 0], False, [(i, val) for i, val in enumerate(self.heights)]) def generate_terrain(self, size): width, height = size scaling = 1.0 * width / self.n cumulative = [x * scaling for x in random_wander(self.n)] # turn heights into points self.pointlist = [(i * scaling, value + height - 300) for i, value in enumerate(cumulative) ] for x in range(width): i = floor(x / scaling) if i < 0: i = 0 if i >= len(self.pointlist)-1: i = len(self.pointlist)-2 remainder = x - i * scaling i = int(i) leftwidth, leftheight = self.pointlist[i] rightwidth, rightheight = self.pointlist[i + 1] h = leftheight + (rightheight - leftheight) * remainder / scaling self.heights.append(h) # add bottom right and bottom left self.pointlist.extend([size, (0, height)])
def makebackground(self, surface):
surface.fill((0,0,0))
template = Surface(2*(min(self.zoom.width, self.zoom.height),),
flags=SRCALPHA)
template.fill((0,0,0,255))
width,height = template.get_size()
o = min(surface.get_width()/width,
surface.get_height()/height)/2
self.rects = []
for y in range(2*o):
lat = asin(float(y-o)/o) * 180/pi
r = int(sqrt(o**2-(o-y)**2))
for x in range(o-r, o+r):
block = template.copy()
v = [float(x-r)/o, float(y-o)/o]
if x >= o:
lon = self.rotate - acos(float((x-(o-r)-r))/r) * 180/pi
else:
lon = self.rotate + 180 + acos(float(r-(x-(o-r)))/r) * 180/pi
if lon > 180:
lon -= 360
h = self.planet.sample(lat, lon)
color = ((0,int(255 * (h/9000.0)),0) if h > 0
else (0,0,int(255 * (1 + h/11000.0))))
block.fill(color)
if self.selection:
if self.selection[0][0] <= lat <= self.selection[0][1]:
if self.selection[1][0] <= lon <= self.selection[1][1]:
block.fill((255,0,0,32),
special_flags = BLEND_ADD)
rect = Rect(x * width, y * height, width, height)
surface.blit(block, rect.topleft)
self.rects.append((rect, (lat, lon)))
class MovingPlayerView(TileView):
folder_dict = {}
ressource_dict = {}
len_animation = 0
def __init__(self, board_pos, board_id, direction, delay, callback=None):
# Init view
self.board_pos = XY(*board_pos)
super(MovingPlayerView, self).__init__(self.board_pos, board_id)
# Init attributes
self.image = Surface((0,0))
self.delay = delay
self.dirty = 2
# Get animation
if direction in self.ressource_dict:
self.counter = counter(self.len_animation)
self.ressource = self.ressource_dict[direction]
else:
self.counter = counter(self.len_animation, reverse = True)
self.ressource = self.ressource_dict[XY(*direction)*(-1,-1)]
self.animation = (self.ressource[i] for i in self.counter)
self.callback = callback
def update(self):
# Delay control
if self.delay:
self.delay -= 1
return
# Animation
self.image = next(self.animation, None)
if self.image is None:
if callable(self.callback):
self.callback()
self.kill()
else:
self.rect.size = self.image.get_size()
class Buffalo():
""" Buffalo object used in the Hunting minigame """
def __init__(self, pos_x, pos_y, picture, size, resource_path):
self.picture = picture
self.size = size
self.resource_path = resource_path
self.max_health = 100 * self.size
self.health = self.max_health
self.preimage = image.load(self.resource_path+"Images/"+self.picture+"_buffalo.png")
self.image = scale(self.preimage, (int(self.preimage.get_width()*self.size),
int(self.preimage.get_height()*self.size)))
self.health_font = font.Font(None, 20)
self.health_bar_container = Surface((int(75*self.size), int(12*self.size))).convert()
self.health_bar_shader = Surface((self.health_bar_container.get_width() + 6,
self.health_bar_container.get_height() + 6)).convert()
self.health_number = self.health_font.render(str(self.health), 1, (0, 0, 0))
self.health_bar_shader.fill((175, 175, 175))
self.health_bar = Surface(self.health_bar_container.get_size()).convert()
self.health_color = ()
if self.health >= 50:
self.health_color = (float((self.max_health-self.health)*2/self.max_health*255), 255, 0)
else:
self.health_color = (255, float(self.health*2/self.max_health*255), 0)
try:
self.health_bar.fill(self.health_color)
except TypeError:
self.health_bar.fill((0, 0, 0))
self.health_bar_container.blit(self.health_bar, (0, 0))
self.value = 20 * self.size
self.rect = Rect((0, 0), self.image.get_size())
self.rect.x = pos_x
self.rect.y = pos_y
self.status = "alive"
self.target_y = pos_y
def update(self):
# Checks the health and updates the health bar
self.preimage = image.load(self.resource_path+"Images/"+self.status+"_buffalo.png")
self.image = scale(self.preimage, (int(self.preimage.get_width()*self.size),
int(self.preimage.get_height()*self.size)))
#Create health bar + shader + container
self.health_bar_container = Surface((int(75*self.size), int(12*self.size))).convert()
self.health_number = self.health_font.render(str(int(self.health)), 1, (255, 255, 255))
self.health_bar_shader = Surface((self.health_bar_container.get_width() + 6,
self.health_bar_container.get_height() + 6)).convert()
self.health_bar_shader.fill((175, 175, 175))
if self.health <= 0:
self.health_bar = Surface((0, 0)).convert()
else:
self.health_bar = Surface((int(self.health_bar_container.get_width()/self.max_health*self.health),
self.health_bar_container.get_height())).convert()
# Set the color of the health_bar_container Red->Yellow->Red based on HP
if self.health >= 50:
self.health_color = (float((self.max_health-self.health)*2/self.max_health*255), 255, 0)
else:
self.health_color = (255, float(self.health*2/self.max_health*255), 0)
# Band-aid solution
# It tends to crash here when self.health_color isn't a valid RGB for some reason
try:
self.health_bar.fill(self.health_color)
except TypeError:
self.health_bar.fill((0, 0, 0))
self.health_bar_container.blit(self.health_bar, (0, 0))
self.health_bar_container.blit(self.health_number, (self.health_bar_container.get_width()/2 -
self.health_number.get_width()/2,
self.health_bar_container.get_height()/2 -
self.health_number.get_height()/2))
self.health_bar_shader.blit(self.health_bar_container, (3, 3))
# Defines movement
if self.status == "alive":
# If buffalo is alive, move them until they reach their target X and Y positions
# TODO: this logic should be reworked
self.rect.x += float(3 - self.size)
if self.rect.y != self.target_y:
if self.rect.y < self.target_y:
self.rect.y += float(3 - self.size)
elif self.rect.y > self.target_y:
self.rect.y -= float(3 - self.size)
return self.rect.center
class Monster(sprite.Sprite):
def __init__(self, move_time, nodes):
sprite.Sprite.__init__(self)
self.nodes = nodes
self.orig_nodes = nodes
self.move_time = move_time
self.spawn_time = time.time()
self.image = Surface((40, 40)).convert()
self.image_inside = Surface((38, 38)).convert()
self.image_inside.fill((0, 255, 0))
self.image.blit(self.image_inside, (1, 1))
self.pos = (80, 40)
self.real_pos = (80, 40)
self.rect = Rect(self.pos, self.image.get_size())
self.speed = 2
self.speed_mod = 1
self.diag_speed = 2
self.target_pos = (880, 560)
self.value = 1
self.cost = 0
self.health = 100
self.damage_mod = 1
self.counter = 0
self.cur_node = self.nodes[0]
self.the_dir = (0, 0)
self.can_move = False
self.name = "Monster"
self.description = "A basic monster with slow movement speed and moderate health."
def update(self, window):
if time.time() - self.spawn_time >= self.move_time:
self.can_move = True
# If it's hit the last block
if len(self.nodes) < 1:
self.kill()
return self.value
else:
# Figuring direction
if self.nodes[0].rect.x > self.cur_node.rect.x:
self.the_dir = (1, 0)
elif self.nodes[0].rect.x < self.cur_node.rect.x:
self.the_dir = (-1, 0)
elif self.nodes[0].rect.y > self.cur_node.rect.y:
self.the_dir = (0, 1)
elif self.nodes[0].rect.y < self.cur_node.rect.y:
self.the_dir = (0, -1)
# Check to see the most the monster can move
for speed in range(0, self.speed+1):
t_dir = tuple([x * speed * self.speed_mod for x in self.the_dir])
# Monster can only move this much
if self.rect.move(t_dir) == self.nodes[0].rect:
self.rect.move_ip(t_dir)
self.real_pos = tuple(map(sum, zip(self.real_pos, t_dir)))
self.cur_node = self.nodes.pop(0)
break
else:
# The monster can move by self.speed
a = tuple([x * self.speed * self.speed_mod for x in self.the_dir])
self.real_pos = tuple(map(sum, zip(self.real_pos, a)))
self.pos = tuple(map(round, self.real_pos))
self.rect.x, self.rect.y = self.pos
# Conditions for the monster to die
die_conditions = [self.rect.top >= window.get_height(),
self.rect.left >= window.get_width(),
self.rect.bottom <= 0]
if any(die_conditions):
self.kill()
return self.value
# Resetting the modifiers, they'll be changed if the monster is under an effect
self.speed_mod = 1
self.damage_mod = 1
return 0
# Does damage to the monster and checks if it dies
def damage(self, damage):
self.health -= damage*self.damage_mod
# Returns the amount of money to grant the player if the monster dies and also how much damage was done
if self.health <= 0:
self.kill()
return self.value, damage*self.damage_mod
else:
return None, damage*self.damage_mod
class HarmonyUi(object):
image = None
rect = None
currPos = (0, 0) # current position of mouse
selKey = 'None' # key of selected star system
keys = ['A','A#','B','C',
'C#','D','D#','E', # the key of the next
'F','F#','G','G#'] # star created
keyIndex = 0
editKey = None
editSpeed = 1 # Speed of next planet placed
selStarId = 'None' # id of current selected star
selPlanetId = 'None' # id of selected planet
selNote = 'None' # note of current selecte planet
selSpeed = 'None' # speed of current selected planet
labelSprites = None # unmutable labels for ui fields
fieldSprites = None # mutable ui fields
clearBg = None # background to clear sprites
def __init__(self, screen, pos):
self.image = Surface((screen.get_width(), 200))
self.rect = self.image.get_rect()
self.rect.topleft = (0, screen.get_height() - 200)
self.currPos = pos
self.editKey = self.keys[self.keyIndex]
self.labelSprites = pygame.sprite.RenderUpdates()
self.fieldSprites = pygame.sprite.RenderUpdates()
self.clearBg = Surface(self.image.get_size())
self.create_labels()
self.create_fields()
def set_selected_star(self, star):
self.selKey = star.key
self.selStarId = star.id
def set_selected_planet(self, planet):
self.selNote = planet.note
self.selSpeed = planet.speed
self.selPlanetId = planet.id
def set_current_pos(self, pos):
self.currPos = pos
def get_edit_speed(self):
return self.editSpeed
def get_edit_key(self):
return self.keyIndex
# Create mutable fields and add them to
# the fieldSprites group. Since fields
# may change with each tick the group
# is emptied and repopulated every call.
def create_fields(self):
self.set_current_pos(pygame.mouse.get_pos())
self.fieldSprites.clear(self.image, self.clearBg)
self.fieldSprites.empty()
xpos = uiSprite(`self.currPos[0]`, (205,101), 'field', 'xpos')
self.fieldSprites.add(xpos)
ypos = uiSprite(`self.currPos[1]`, (205,126), 'field', 'ypos')
self.fieldSprites.add(ypos)
eSpeed = uiSprite(`self.editSpeed`, (80,100), 'field', 'eSpeed')
self.fieldSprites.add(eSpeed)
eKey = uiSprite(self.editKey, (80,125), 'field', 'eKey')
self.fieldSprites.add(eKey)
sid = uiSprite(self.selStarId, (353,101), 'field', 'sid')
self.fieldSprites.add(sid)
skey = uiSprite(self.selKey, (353,126), 'field', 'skey')
self.fieldSprites.add(skey)
pid = uiSprite(self.selPlanetId, (535,101), 'field', 'pid')
self.fieldSprites.add(pid)
pSpeed = uiSprite(self.selSpeed, (535,126), 'field', 'pSpeed')
self.fieldSprites.add(pSpeed)
# Create all of the labels for the ui fields
# and place them in the labelSprites group
def create_labels(self):
xposLabel = uiSprite('xposlabel.png', (150, 100), 'label', 'xpl')
self.labelSprites.add(xposLabel)
yposLabel = uiSprite('yposlabel.png', (150, 125), 'label', 'ypl')
self.labelSprites.add(yposLabel)
speedLabel = uiSprite('speedlabel.png', (24, 100), 'label', 'spl')
self.labelSprites.add(speedLabel)
keyLabel = uiSprite('keylabel.png', (39, 125), 'label', 'kyl')
self.labelSprites.add(keyLabel)
staridLabel = uiSprite('staridlabel.png', (280, 100), 'label', 'sidl')
self.labelSprites.add(staridLabel)
starkeyLabel = uiSprite('starkeylabel.png', (275, 125), 'label', 'skl')
self.labelSprites.add(starkeyLabel)
pidLabel = uiSprite('planetidlabel.png', (448, 100), 'label', 'pidl')
self.labelSprites.add(pidLabel)
pspeedLabel = uiSprite('pslabel.png', (425, 125), 'label', 'psl')
self.labelSprites.add(pspeedLabel)
def draw_ui(self):
self.labelSprites.draw(self.image)
self.fieldSprites.draw(self.image)
# GET WEBCAM DATA BY PYGAME---------------
# Force SDL to write on our drawing area
os.putenv('SDL_WINDOWID', str(canvas.get_property('window').get_xid()))
# We need to flush the XLib event loop otherwise we can't
# access the XWindow which set_mode() requires
Gdk.flush()
pygame.init()
data = client_socket_test.recv(1024000)
image = Image.fromstring("RGB", (80, 60), data)
image = image.resize((640, 480))
image = pygame.image.frombuffer(image.tostring(), (640, 480), "RGB")
print Surface.get_size(image)
(WINX, WINY) = Surface.get_size(image)
# setting screen according to size
pygame.display.set_mode((WINX, WINY), 0, 0)
screen = pygame.display.get_surface()
#screen.blit(image, (0, 0))
#GLib.idle_add(pygame.display.update)
print "yoyo"
def updateImg(output):
screen.blit(output, (0, 0))
GLib.idle_add(pygame.display.update)
print "boom"
return True
videoListener = videoListenerThread(displayFunc=updateImg)
def makebackground(self, surface):
surface.fill((0,0,0))
template = Surface(2*(min(self.zoom.width, self.zoom.height),))
template.fill((0,0,0,255))
width,height = template.get_size()
ylim = surface.get_height()/height
dlat = float(self.selected[0][1] - self.selected[0][0])/ylim
xmax = 0
for y in range(ylim):
lat = self.selected[0][0] + y * dlat
scale = cos(lat * pi/180)
w = int(surface.get_width() * scale/width)
if w > xmax:
xmax = w
hmin = hmax = 0
for y in range(ylim):
lat = self.selected[0][0] + y * dlat
scale = cos(lat * pi/180)
xlim = int(surface.get_width() * scale/width)
for x in range(xlim):
dx = float(xmax - xlim)/2
lon = self.selected[1][0] + (x + dx) * scale * dlat
h = self.planet.sample(lat, lon)
if h < hmin:
hmin = h
if h > hmax:
hmax = h
self.rects = []
for y in range(ylim):
lat = self.selected[0][0] + y * dlat
scale = cos(lat * pi/180)
xlim = int(surface.get_width() * scale/width)
for x in range(xlim):
dx = float(xmax - xlim)/2
lon = self.selected[1][0] + (x + dx) * scale * dlat
block = template.copy()
h = self.planet.sample(lat, lon)
if h < 0:
color = 0, 0, int(255 * (1 - h/hmin))
else:
color = 0, int(255 * h/hmax), 0
block.fill(color)
if self.selection:
if self.selection[0][0] <= lat <= self.selection[0][1]:
if self.selection[1][0] <= lon <= self.selection[1][1]:
block.fill((255,0,0,32),
special_flags = BLEND_ADD)
rect = Rect(int(x+dx)*width, y*height, width, height)
surface.blit(block, rect.topleft)
self.rects.append((rect, (lat, lon)))
def store_surface(surface: pygame.Surface, tempfiles: dict, mx: int, my: int):
tfp = tempfile.SpooledTemporaryFile()
string = zlib.compress(pygame.image.tostring(surface, "RGB"))
data = imgheader.pack(1, *surface.get_size()) + string
tfp.write(data)
tempfiles[(mx, my)] = tfp
class Buffalo(): def __init__(self, posX, posY, picture, size, resourcePath): self.picture = picture self.size = size self.resourcePath = resourcePath self.maxHealth = 100 * self.size self.health = self.maxHealth self.preimage = image.load(self.resourcePath + "img/" + self.picture + "_buffalo.png") self.image = scale(self.preimage, (int(self.preimage.get_width() * self.size), int(self.preimage.get_height() * self.size))) self.healthFont = font.Font(None, 20) self.healthBarContainer = Surface((int(75 * self.size), int(12 * self.size))).convert() self.healthBarShader = Surface((self.healthBarContainer.get_width() + 6, self.healthBarContainer.get_height() + 6)).convert() self.healthNumber = self.healthFont.render(str(self.health), 1, (0, 0, 0)) self.healthBarShader.fill((175, 175, 175)) self.healthBar = Surface(self.healthBarContainer.get_size()).convert() self.healthColour = () if (self.health >= 50): self.healthColour = (float((self.maxHealth - self.health) * 2 / self.maxHealth * 255), 255, 0) else: self.healthColour = (255, float(self.health * 2 / self.maxHealth * 255), 0) try: self.healthBar.fill(self.healthColour) except TypeError: self.healthBar.fill((0, 0, 0)) self.healthBarContainer.blit(self.healthBar, (0, 0)) self.value = 20 * self.size self.rect = Rect((0, 0), self.image.get_size()) self.rect.x = posX self.rect.y = posY self.status = "alive" self.targetY = posY def update(self): self.preimage = image.load(self.resourcePath + "img/" + self.status + "_buffalo.png") self.image = scale(self.preimage, (int(self.preimage.get_width() * self.size), int(self.preimage.get_height() * self.size))) self.healthBarContainer = Surface((int(75 * self.size), int(12 * self.size))).convert() self.healthNumber = self.healthFont.render(str(int(self.health)), 1, (255, 255, 255)) self.healthBarShader = Surface((self.healthBarContainer.get_width() + 6, self.healthBarContainer.get_height() + 6)).convert() self.healthBarShader.fill((175, 175, 175)) if (self.health <= 0): self.healthBar = Surface((0, 0)).convert() else: self.healthBar = Surface((int(self.healthBarContainer.get_width() / self.maxHealth * self.health), self.healthBarContainer.get_height())).convert() if (self.health >= 50): self.healthColour = (float((self.maxHealth - self.health) * 2 / self.maxHealth * 255), 255, 0) else: self.healthColour = (255, float(self.health * 2 / self.maxHealth * 255), 0) try: self.healthBar.fill(self.healthColour) except TypeError: self.healthBar.fill((0, 0, 0)) self.healthBarContainer.blit(self.healthBar, (0, 0)) self.healthBarContainer.blit(self.healthNumber, (self.healthBarContainer.get_width() / 2 - self.healthNumber.get_width() / 2, self.healthBarContainer.get_height() / 2 - self.healthNumber.get_height() / 2)) self.healthBarShader.blit(self.healthBarContainer, (3, 3)) if (self.status == "alive"): self.rect.x += float(3 - self.size) if (self.rect.y != self.targetY): if (self.rect.y < self.targetY): self.rect.y += float(3 - self.size) elif (self.rect.y > self.targetY): self.rect.y -= float(3 - self.size) return self.rect.center
class Weapon(Item):
def __init__(self, game, name):
"""
Slightly depreciated weapon class. Will need major rewriting.
Used for loading and applying weapon characteristics to the player.
"""
self.game = game
#setup base vars of all weapon(s)
self.type = None
self.shown = True
self.range = 10
self.damage = 1
self.cooldown = 500 # in MS
self.speed = 4
self.projectile = None
self.loadWeapon(name)
# attack based vars
self.attacking = False
def loadWeapon(self, name):
"""
Uses the weapon config file to load all weapon characteristics.
"""
config_file = open(os.path.join('rec', 'weapon', name, 'config.py')).read()
exec(config_file)
self.hold_image = img_load(os.path.join('rec', 'weapon', name, 'hold.png')).convert_alpha()
if os.path.exists(os.path.join('rec', 'weapon', name, 'attack.png')):
self.attack_image = img_load(os.path.join('rec', 'weapon', name, 'attack.png')).convert_alpha()
else:
self.attack_image = Surface([1, 1])
def getSurface(self, name):
fi_name = name.lower().replace(' ', '_') + '.png'
return img_load(os.path.join(self.game.main_path, 'rec', 'weapon', name, fi_name))
def preUpdate(self, ttime):
"""
Called before the update function, can be overriden for new functionality.
"""
pass
def update(self, ttime):
"""
Main weapon update, should not be overriden.
"""
self.preUpdate(ttime)
if self.type == 'short':
self.shortUpdate()
elif self.type == 'long':
self.longUpdate()
elif self.type == 'ranged':
self.rangedUpdate()
else:
pass
def shortAttack(self):
self.attacking = True
if self.game.Player.player_face == 'front':
# I do not know why this vector needs to be 0 while the others are like, 1
self.directional_attack_image = rotate(self.attack_image, 180)
self.sub_vector = [0, 0]
elif self.game.Player.player_face == 'left':
self.directional_attack_image = rotate(self.attack_image, 90)
self.sub_vector = [-1, 0]
elif self.game.Player.player_face == 'back':
self.directional_attack_image = rotate(self.attack_image, 0)
self.sub_vector = [0, -1]
elif self.game.Player.player_face == 'right':
self.directional_attack_image = rotate(self.attack_image, 270)
self.sub_vector = [0.8, 0] # editing this seems to change the speed of the right dagger swing a bit
self.game.Player.can_move = False
self.receding = False
self.potent = True
self.weapon_rect = Rect(1, 1, 1, 1)
p_coords = [self.game.Player.player_r.x, self.game.Player.player_r.y]
a_coords = [p_coords[0] + self.game.Player.getRigging()[0], p_coords[1] + self.game.Player.getRigging()[1]]
if self.game.Player.player_face == 'right' or self.game.Player.player_face == 'left':
a_coords = [a_coords[0] - self.attack_image.get_height(), a_coords[1] - self.attack_image.get_width()]
self.blit_pos = a_coords
self.attack_ticks = self.range
def shortUpdate(self):
if self.attacking:
for repeats in xrange(self.speed):
self.game.Player.player_state = 3
self.blit_pos[0] += self.sub_vector[0]
self.blit_pos[1] += self.sub_vector[1]
if self.receding:
self.attack_ticks += 1
elif not self.receding:
self.attack_ticks -= 1
# check all monsters for touching weapon
for index, monster in enumerate(self.game.EntityHandler.monsters):
if monster.rect.colliderect(self.weapon_rect):
if self.potent:
monster.takeDamage(index, self.damage)
self.potent = False
if self.attacking and self.attack_ticks == self.range and self.receding:
self.attacking = False
self.game.Player.can_move = True
elif self.attacking and self.attack_ticks <= 0 and not self.receding:
self.receding = True
self.sub_vector[0] *= -1
self.sub_vector[1] *= -1
def shortBlit(self):
if self.attacking:
if self.game.Player.player_face == 'front' or self.game.Player.player_face == 'back':
height = self.directional_attack_image.get_rect().height
d_rect = Rect([0, height - (self.range - self.attack_ticks)], [100, 100])
self.weapon_rect = self.game.screen.blit(self.directional_attack_image, self.game.off([self.blit_pos[0], self.blit_pos[1]]), d_rect)
unoff_pos = self.game.unoff([self.weapon_rect.x, self.weapon_rect.y])
self.weapon_rect.x = unoff_pos[0]
self.weapon_rect.y = unoff_pos[1]
elif self.game.Player.player_face == 'right' or self.game.Player.player_face == 'left':
pos = self.game.off([self.blit_pos[0] + self.rigging[1], self.blit_pos[1]])
if self.game.Player.player_face == 'left':
#this prevents the "hover" look of the dagger off the default player body
pos[0] += 7
width = self.directional_attack_image.get_rect().width
d_rect = Rect([width - (self.range - self.attack_ticks), 0], [100, 100])
self.weapon_rect = self.game.screen.blit(self.directional_attack_image, pos, d_rect)
unoff_pos = self.game.unoff([self.weapon_rect.x, self.weapon_rect.y])
self.weapon_rect.x = unoff_pos[0]
self.weapon_rect.y = unoff_pos[1]
def longAttack(self):
self.attacking = True
self.y_offset = 0
self.x_offset = 0
if self.game.Player.player_face == "front":
self.init_angle = 180
elif self.game.Player.player_face == "back":
self.init_angle = 0
self.y_offset = -self.game.Player.getSize()[1]*0.60 - self.attack_image.get_height()
self.x_offset = -self.game.Player.getSize()[0]*0.60
elif self.game.Player.player_face == "left":
self.init_angle = 90
self.x_offset = -self.game.Player.getSize()[0] - self.attack_image.get_height()
elif self.game.Player.player_face == "right":
self.init_angle = 270
self.directional_attack_image = rotate(self.attack_image, self.init_angle)
self.attack_rect = self.directional_attack_image.get_rect()
self.angle = 0
def longUpdate(self):
if self.attacking:
for x in xrange(5):
attack_size = self.directional_attack_image.get_size()
turn_point = [0, 0]
if self.game.Player.isVertical():
turn_point = [attack_size[0]/2, 0]
elif self.game.Player.isHorizontal():
turn_point = [0, attack_size[1]/2]
self.mod_DAT = rotate(self.directional_attack_image, self.angle + 45)
if self.angle < -90:
self.attacking = False
self.angle -= 1
def longBlit(self):
if self.attacking:
blit_pos = self.game.off(self.game.Player.getPos())
blit_pos = vector.add(blit_pos, self.game.Player.getRigging())
blit_pos = vector.sub(blit_pos, self.attack_image.get_size())
#offset for left/back
blit_pos[0] += self.x_offset
blit_pos[1] += self.y_offset
self.new_rect = self.game.screen.blit(self.mod_DAT, blit_pos)
self.new_rect.center = self.attack_rect.center
self.attack_rect = self.new_rect
def rangedAttack(self):
pass
def rangedUpdate(self):
pass
def rangedBlit(self):
pass
def blit(self):
"""
Called before the player is blitted
"""
if self.game.Player.player_face == 'back' and not self.attacking:
self.drawInHand()
if self.type == 'short':
self.shortBlit()
elif self.type == 'long':
self.longBlit()
elif self.type == 'ranged':
self.rangedBlit()
def blitAfter(self):
if self.game.Player.player_face == 'front' and not self.attacking:
self.drawInHand()
def drawInHand(self):
p_coords = [self.game.Player.player_r.x, self.game.Player.player_r.y]
a_coords = [p_coords[0] + self.game.Player.getRigging()[0] - self.game.Player.equipment['weapon'].rigging[0], p_coords[1] + self.game.Player.getRigging()[1] - self.game.Player.equipment['weapon'].rigging[1]]
self.game.screen.blit(self.hold_image, self.game.off(a_coords))
def onClick(self, game, vector):
"""
Called when the world is clicked. Activates the weapon.
"""
if self.projectile:
game.Projectile(game, self.projectile, vector)
if self.type == 'short':
self.shortAttack()
elif self.type == 'long':
self.longAttack()
elif self.type == 'ranged':
self.rangedAttack()
class Tower(sprite.Sprite):
""" Base Tower Class """
def __init__(self, pos):
sprite.Sprite.__init__(self)
self.name = "Tower"
self.pos = pos
self.grid_pos = tuple([x/40 for x in self.pos])
self.image = Surface((40, 40)).convert()
self.kills = 0
self.damage_done = 0
self.image.fill((225, 50, 50))
self.rect = Rect(self.pos, self.image.get_size())
self.projectile = Surface((10, 10)).convert()
self.projectile.fill((0, 255, 255))
self.projectile_speed = 5
self.projectiles = sprite.Group()
self.turn_yield = 0
self.radius = 200
self.fire_rate = 1
self.damage = 25
self.level = 1
self.upgrade_cost = 5
self.description = "A basic tower with moderate fire speed and damage."
self.cost = 25
self.value = self.cost
self.target = None
self.last_shot = time.time()
self.image.convert()
self.projectile.convert()
self.frame = TowerFrame(self)
def update(self, monsters, screen, screen_rect):
# If there is no target
if self.target is None:
for monster in monsters:
if monster.can_move:
if sprite.collide_circle(monster, self):
self.target = monster
break
# Shoot at the target
if self.target is not None:
# If the target has gone out of range
if not sprite.collide_circle(self.target, self):
self.target = None
else:
self.shoot()
if self.target.health <= 0:
self.target = None
self.projectiles.update(monsters, screen_rect)
self.projectiles.draw(screen)
def update_info(self):
self.frame = TowerFrame(self)
def shoot(self):
if time.time() - self.last_shot >= self.fire_rate:
self.projectiles.add(Projectile(pos=(self.rect.x, self.rect.y),
tower=self,
target=self.target,
image=self.projectile,
speed=self.projectile_speed,
damage=self.damage))
self.last_shot = time.time()
def upgrade(self):
if self.level < 5:
self.damage += 5
self.projectile_speed -= 0.5
self.level += 1
self.update_info()
return True
return False
