def collide(creep1, creep2):
if creep1.id != creep2.id:
if pygame.sprite.collide_mask(creep1, creep2):
if creep1.type != creep2.type and creep1.health <= creep2.health:
creep1.rotate(-30, 30)
creep1.health -= 1
creep2.health -= 0.5
if creep1.health <= 0:
True
creep1.kill()
elif creep1.elapsed_time > randint(100, 500):
if pygame.sprite.collide_circle_ratio(4)(creep1, creep2):
if creep1.type != creep2.type:
if creep1.health > creep2.health:
creep2.curspeed = uniform(creep2.curspeed * 1.2, creep2.curspeed * 1.3)
creep1.curspeed = uniform(creep1.curspeed * 1.1, creep1.curspeed * 1.2)
if creep1.curspeed > creep1.speedmax:
creep1.curspeed = creep1.speedmax
if creep2.curspeed > creep2.speedmax:
creep2.curspeed = creep2.speedmax
vec = vec2d(creep2.rect.x - creep1.rect.x, creep2.rect.y - creep1.rect.y)
if creep1.health > creep2.health:
creep1.rotate(creep1.direction.get_angle_between(vec) + randint(-10, 10))
else:
creep1.rotate(creep1.direction.get_angle_between(vec) - 180 + randint(-10, 10))
else:
if (
pygame.sprite.collide_circle_ratio(10)(creep1, creep2)
and creep1.health >= creep2.health
and (creep1.type == creep2.type and creep1.elapsed_time >= 300)
):
vec = vec2d(creep2.rect.x - creep1.rect.x, creep2.rect.y - creep1.rect.y)
creep1.rotate(creep1.direction.get_angle_between(vec) + randint(-20, 20))
def __init__(self, size, number):
Entity.__init__(self)
self.size = size
self.number = number
self.walk_sheet = SpriteSheet("./img/sprite_male.png",
block=64,
start=(0, 512),
size=(9, 4))
self.idle_sheet = SpriteSheet("./img/sprite_male.png",
block=64,
start=(0, 0),
size=(1, 4))
self.animate = Animate("mob {}".format(self.number))
self.animate.load_animations("walk", ["up", "left", "down", "right"],
self.walk_sheet.image_list)
self.animate.load_animations("idle", ["up", "left", "down", "right"],
self.idle_sheet.image_list)
self.image = self.animate.update(0)
self.rect = pygame.Rect(random.randint(0, 400), random.randint(0, 400),
64, 64)
self.pos = vec2d(self.rect.center)
self.direction = [0, 0, 0, 0]
self.dir = vec2d(0, 0)
self.target = vec2d(0, 0)
self.straight = vec2d(1, 0)
direction = random.randint(-0, 3)
self.direction[direction] = 1
self.speed = 2
def run_md(
dt, N_steps, T, L
): #questa sarà la funzione che girerà. dt è il passo temporale. T è temperatura, initial_pos sono le posizioni iniziali.
N_partcl = 25
initial_pos = np.array([
v2d.vec2d(i + 10, j + 10) * sigma * 1.1
for i in range(int(np.sqrt(N_partcl)))
for j in range(int(np.sqrt(N_partcl)))
])
positions = np.full([N_steps, N_partcl], fill_value=v2d.vec2d(0, 0))
positions[
0, :] = initial_pos #questa dicitura indica di prendere la prima colonna e considerarne tutti gli elementi.
x = initial_pos
vel = init_vel(T, N_partcl)
forces = compute_forces(initial_pos, L)
for i in range(N_steps):
#aggiornare posizioni
x = update_positions(x, vel, forces, dt, L)
#aggiornare forze con nuove posizioni
new_forces = compute_forces(
x, L) #lo chiamo newforces per evitare sovrascrizioni
#calcolare velocità
vel = update_velocities(vel, forces, new_forces, dt)
#aggiorno array di posizione
positions[i, :] = x
return positions
def __init__(self,
surface,
pos=vec2d(0, 0),
size=vec2d(200, 50),
text="",
textcolor=(0, 0, 0),
padding=0,
bgcolor=(255, 255, 255)):
print "In textEntry init method"
self.surface = surface
self.pos = pos
self.size = size
self.text = text
self.textcolor = textcolor
self.padding = padding
self.clicked = False
self.rect = Rect(self.pos.x, self.pos.y, self.size.x, self.size.y)
self.lastKey = ""
self.delay = 1
#creates a text label to place in the middle of the rectangle
self.font = pygame.font.SysFont("Times New Roman", 25)
self.textOverlay = self.font.render(self.text, 1, self.textcolor)
self.textSize = vec2d(self.font.size(self.text))
self.textRect = Rect(self.pos.x, self.pos.y, self.textSize.x,
self.textSize.y)
def move(self, dt):
moving = True
if self.direction[0]: #up
self.dir = vec2d(0, -5)
self.dir.length = self.speed
self.animate.switch("walk", "up")
self.image = self.animate.update(dt)
elif self.direction[1]: #left
self.dir = vec2d(-5, 0)
self.dir.length = self.speed
self.animate.switch("walk", "left")
self.image = self.animate.update(dt)
elif self.direction[2]: #down
self.dir = vec2d(0, 5)
self.dir.length = self.speed
self.animate.switch("walk", "down")
self.image = self.animate.update(dt)
elif self.direction[3]: #right
self.dir = vec2d(5, 0)
self.dir.length = self.speed
self.animate.switch("walk", "right")
self.image = self.animate.update(dt)
else:
moving = False
self.animate.switch("idle")
self.animate.new = True
self.image = self.animate.update(dt)
if moving:
self.pos += self.dir
self.rect.center = self.pos.inttup()
def __init__(self, fnames, pos):
game.Game.__init__(self)
strips = cyclic_list([])
y = 0
for i, fname in enumerate(fnames):
if "colorkey" in fname:
colorkey = -1
else:
colorkey = None
#pos = (50*i, y)
# get the width out of the filename.
parts = fname.split(".")
try:
width = int(parts[-2].split('-')[-1])
except:
width = 50
strips.append(Strip(fname, width, colorkey, pos=pos, loop=-1))
self.pos = pos
self.strips = strips
self.strip = self.strips[0]
self.direction = vec2d(0, 0)
self.speed = 2
self.accel = 1
self.world = vec2d(0, 0)
def check(self, player):
mtop = mleft = mbottom = mright = False
collided = pygame.sprite.spritecollide(player, self.walls, False)
if collided != []:
for brick in collided:
if not mtop: mtop = brick.rect.collidepoint(player.rect.midtop)
if not mleft: mleft = brick.rect.collidepoint(player.rect.midleft)
if not mbottom: mbottom = brick.rect.collidepoint(player.rect.midbottom)
if not mright: mright = brick.rect.collidepoint(player.rect.midright)
if mtop:
if player.direction["up"]:
wall_vector = vec2d(10,0)
player.dir = player.dir.projection(wall_vector)
if mleft:
if player.direction["left"]:
wall_vector = vec2d(0,10)
player.dir = player.dir.projection(wall_vector)
if mbottom:
if player.direction["down"]:
wall_vector = vec2d(10,0)
player.dir = player.dir.projection(wall_vector)
if mright:
if player.direction["right"]:
wall_vector = vec2d(0,10)
player.dir = player.dir.projection(wall_vector)
def move(self, dt):
moving = True
if self.direction[0]: #up
self.dir = vec2d(0,-5)
self.dir.length = self.speed
self.animate.switch("walk", "up")
self.image = self.animate.update(dt)
elif self.direction[1]: #left
self.dir = vec2d(-5,0)
self.dir.length = self.speed
self.animate.switch("walk", "left")
self.image = self.animate.update(dt)
elif self.direction[2]: #down
self.dir = vec2d(0,5)
self.dir.length = self.speed
self.animate.switch("walk", "down")
self.image = self.animate.update(dt)
elif self.direction[3]: #right
self.dir = vec2d(5,0)
self.dir.length = self.speed
self.animate.switch("walk", "right")
self.image = self.animate.update(dt)
else:
moving = False
self.animate.switch("idle")
self.animate.new = True
self.image = self.animate.update(dt)
if moving:
self.pos += self.dir
self.rect.center = self.pos.inttup()
def main():
# sets up pygame
pygame.init()
pygame.display.set_caption("Pysics")
screen = pygame.display.set_mode((500, 590))
clock = pygame.time.Clock()
world = pysicsWorld.world(screen)
lastdraw = 0
circle = pysicsObj.object(screen, world, "player", 10, "circle")
circle.pos = vec2d(320, 240)
circle.size = 5
circle.mass = 1
for i in range(50):
circle = pysicsObj.object(screen, world, "circle" + str(i), 10, "circle")
circle.pos = vec2d(random.randint(0, screen.get_width()), random.randint(0, screen.get_height()))
circle.vel = vec2d(screen.get_size()) / 2 - circle.pos
circle2 = pysicsObj.object(screen, world, "circle2", 10, "circle")
circle2.pos = vec2d(320, 0)
circle2.vel = vec2d(0, 0)
circle2.size = 5
circle2.mass = 1
# game loop
while 1:
# cap the framerate at 60 frames per second
elapsed_time = clock.tick(60)
lastdraw += elapsed_time
circle = world.objects[0]
# handle user input
for e in pygame.event.get():
if e.type == QUIT or (e.type == KEYDOWN and e.key == K_ESCAPE):
pygame.quit()
return
# move the player with the arrow keys
key = pygame.key.get_pressed()
if key[K_LEFT]:
circle.applyforce(vec2d(-100, 0))
if key[K_RIGHT]:
circle.applyforce(vec2d(100, 0))
if key[K_UP]:
circle.applyforce(vec2d(0, -200))
if key[K_DOWN]:
circle.applyforce(vec2d(0, 100))
if not key[K_DOWN] and not key[K_LEFT] and not key[K_RIGHT] and not key[K_UP]:
circle.vel = 0
circle2.acc = vec2d(0, 10)
# draw everything
world.update(elapsed_time)
if lastdraw > 15:
world.draw()
lastdraw = 0
pygame.display.flip()
def __init__(self, screen, game, creep_images, explosion_images, field, init_position, init_direction, speed): """Create a new Creep. init_position: A vec2d or a pair specifying the initial position of the creep on the screen. """ Sprite.__init__(self) self.screen = screen self.game = game self.speed = speed self.field = field # base_image holds original image, positioned to angle 0. # image will be rotated self.base_image_0 = creep_images[0] self.base_image_45 = creep_images[1] self.image = self.base_image_0 self.explosion_images = explosion_images # vector specifying creep's position on screen self.pos = vec2d(init_position) self.prev_pos = vec2d(self.pos) # the direction is a normalized vector self.direction = vec2d(init_direction).normalized() self.state = Creep.ALIVE self.health = 15
def __init__(self, finestra, posicio = 'centre'):
self.finestra = finestra
if posicio == 'centre':
self.posicio = vec2d(finestra.get_rect().center)
self.direccio = vec2d(0,-1)
self.cap = self.Cap(self.posicio)
self.cap.set_direccio(self.direccio)
def mouseUp(self, button, pos):
if pos[1] < 400:
if button == 3:
if type(self.selected) is Drone:
self.selected.droneaction(self, pos)
elif type(self.selected) is MainBase or \
type(self.selected) is Outpost:
self.selected.target = vec2d(pos[0] + self.hud.pos[0],
pos[1] + self.hud.pos[1])
elif button == 1:
found = 0
for drone in self.drones:
if drone.pos.get_distance(vec2d(pos[0] + self.hud.pos[0],
pos[1] + self.hud.pos[1])) < 20:
self.selected = drone
found = 1;
if found == 0:
for building in self.buildings:
if building.pos.get_distance(vec2d(pos[0] + self.hud.pos[0],
pos[1] + self.hud.pos[1])) < building.size:
self.selected = building
# ------------------- Hud control ------------------------
else:
curpos = vec2d(pos)
if button == 1:
self.selected.detectact(self, curpos)
def __init__(
self,
surface,
pos=vec2d(0, 0),
size=vec2d(200, 50),
text="",
textcolor=(0, 0, 0),
padding=0,
bgcolor=(255, 255, 255),
):
print "In textEntry init method"
self.surface = surface
self.pos = pos
self.size = size
self.text = text
self.textcolor = textcolor
self.padding = padding
self.clicked = False
self.rect = Rect(self.pos.x, self.pos.y, self.size.x, self.size.y)
self.lastKey = ""
self.delay = 1
# creates a text label to place in the middle of the rectangle
self.font = pygame.font.SysFont("Times New Roman", 25)
self.textOverlay = self.font.render(self.text, 1, self.textcolor)
self.textSize = vec2d(self.font.size(self.text))
self.textRect = Rect(self.pos.x, self.pos.y, self.textSize.x, self.textSize.y)
def line_intersect_circle(Q, r, segment):
"""
Verifies if a line crosses a circle.
:param Q:
:param r:
:param segment:
:return: true if the segment passes inside the circle, false otherwise.
"""
P1 = vec2d(segment[0])
V = vec2d(segment[1]) - vec2d(P1)
a = V.dot([V.x, V.y])
l = P1 - Q
b = 2 * V.dot([l.x, l.y])
c = P1.dot(P1) + Q.dot(Q) - 2 * P1.dot(Q) - r ** 2
disc = b ** 2 - 4 * a * c
if disc < 0:
return False, None
sqrt_disc = math.sqrt(disc)
t1 = (-b + sqrt_disc) / (2 * a)
t2 = (-b - sqrt_disc) / (2 * a)
if not (0 <= t1 <= 1 or 0 <= t2 <= 1):
return False, None
t = max(0, min(1, - b / (2 * a)))
return True, P1 + t * V
def __init__(self, surface, pos=vec2d(0, 0), btntype="", imgnames=[], text="", textcolor=(0,0,0),
textimg=0,padding=0, attached=""):
print "In button init method"
self.surface = surface
self.pos = pos
self.btntype = btntype
self.imgnames = imgnames
self.text = text
self.textcolor = textcolor
self.textimg = textimg
self.padding = padding
self.attached = attached
self.state = Button.UNCLICKED
self.toggle = 0
#load images
self.imgs = []
for name in self.imgnames:
img = pygame.image.load(name).convert_alpha()
#img = img.set_colorkey((255,255,255))
#it would be nice to make the images transparent,
#but it throws an error not worth fighting
self.imgs.append(img)
self.imgwidth, self.imgheight = self.imgs[self.toggle].get_size()
self.rect = Rect(self.pos.x, self.pos.y, self.imgwidth, self.imgheight)
print "Image dimensions are: " + str(self.imgwidth) + ", " + str(self.imgheight)
#creates a text label to place in the middle of the button
font = pygame.font.SysFont("Times New Roman", 25)
self.textOverlay = font.render(self.text,1,self.textcolor)
self.textSize = vec2d(font.size(self.text))
self.textRect = Rect(self.pos.x+self.imgwidth/2-self.textSize.x/2,self.pos.y+self.imgheight/2-self.textSize.y/2,0,0)
def __init__(self,
x,
y,
init_direction,
color=None,
size=None,
dna=None,
age=0):
pygame.sprite.Sprite.__init__(self)
self.size = randrange(4, 15), randrange(4, 15)
self.color = (randint(0, 255), randint(0, 255), randint(0, 255))
self.dna = ''.join(choice(string.ascii_uppercase) for _ in range(4))
if size:
self.size = size
if color:
self.color = color
if dna:
self.dna = dna
self.stamina = randrange(500, 1650)
self.age = age
self.life_span = randrange(1000, 2500)
self.speed = uniform(.001, .6)
self.ori_speed = self.speed
self.eating = 10
self.dna_score = self.fitness(self.dna)
self.birth_recup = 20
self.counter = 0
self.image = pygame.Surface([self.size[0], self.size[1]])
self.image.fill(self.color)
self.rect = self.image.get_rect()
self.rect.x, self.rect.y = vec2d((x, y))
self.direction = vec2d(init_direction).normalized()
def detectact(self, target, curpos):
if curpos.get_distance(vec2d(646, 456)) <= 15:
new_drone = self.buy_drone()
if new_drone:
target.drones.append(new_drone)
if curpos.get_distance(vec2d(696, 456)) <= 15:
self.buy_battery()
def __init__(self, screen, game, creep_images, explosion_images, field,
init_position, init_direction, speed):
"""Create a new Creep.
init_position: A vec2d or a pair specifying the initial
position of the creep on the screen. """
Sprite.__init__(self)
self.screen = screen
self.game = game
self.speed = speed
self.field = field
# base_image holds original image, positioned to angle 0.
# image will be rotated
self.base_image_0 = creep_images[0]
self.base_image_45 = creep_images[1]
self.image = self.base_image_0
self.explosion_images = explosion_images
# vector specifying creep's position on screen
self.pos = vec2d(init_position)
self.prev_pos = vec2d(self.pos)
# the direction is a normalized vector
self.direction = vec2d(init_direction).normalized()
self.state = Creep.ALIVE
self.health = 15
def __init__(self, screen, img_filename, init_position,
init_direction, speed):
"""Skapar ett nytt kryp.
@param screen: Ytan där krypet ska målas.
@param image_filname: Image file för krypet.
@param init_position: Startposition.
@param init_direction: Startriktning.
@param speed: Hastighet i pixels/ms
"""
pygame.sprite.Sprite.__init__(self)
if Creep.explosion_sound is None:
# Ladda bara ljudet EN gång, en statisk variabel
Creep.explosion_sound = pygame.mixer.Sound(os.path.join('sound','bomb_explosion.wav'))
self.explosion_sound = Creep.explosion_sound
self.explosion_sound.set_volume(0.2)
self.health = 5
self.state = Creep.ALIVE
self.screen = screen
self.speed = speed
self.explosion_image = pygame.image.load(os.path.join('images','boom.png')).convert_alpha()
self.explosion_timer = 0
# Originalbilden
self.base_image = pygame.image.load(img_filename).convert_alpha()
# Bilden som skall roteras osv
self.image = self.base_image
# Rect behövs för den kolissionshanteringen
self.rect = self.image.get_rect()
# Start-position. En vektor
self.pos = vec2d(init_position)
# Start-riktning. En normaliserad vektor
self.direction = vec2d(init_direction).normalized()
def __init__(self, screen, field, game,
image, init_pos, init_direction):
"""
screen: obrazovka na ktoru sa bude vykraslovat
field: rect v ktorom sa odohrava hra
game: objekt hry
image: ibrazok pre loptu
init_direction = smer lopty na zaciatku
"""
Sprite.__init__(self)
self.screen = screen
self.field = field
self.game = game
self.image = image
self.pos = vec2d(init_pos)
self.direction = vec2d(init_direction).normalized()
self.speed = 0.35
self.rect = self.image.get_rect()
self.rect.center = self.pos
def get_interfaces(self, x,y):
sides = {}
sides["left"] = [vec2d(x, y+z) for z in self.interfaces]
sides["right"] = [vec2d(self.dis+x, y+z) for z in self.interfaces]
sides["top"] = [vec2d(x+z, y) for z in self.interfaces]
sides["bottom"] = [vec2d(x+z, y+self.dis) for z in self.interfaces]
return sides
def __init__(self, screen, field, init_position, init_direction, speed,
img_file, dead_img_file):
Sprite.__init__(self)
self.name = 'Creep'
self.base_image = img_file
self.image = self.base_image
self.image_dead = dead_img_file
self.screen = screen
self.field = field
self.pos = vec2d(init_position)
self.direction = vec2d(init_direction).normalized()
self.speed = speed
self.state = self.ALIVE
self.attack_power = 10
self.deffence_power = 5
self.life = 100
self.max_life = 100
self.image_w, self.image_h = self.image.get_size()
self.reborn_time = 0
self._time_moving = 0
self._time_moving_max = random.randint(5000, 10000)
self.bullets = []
def on_update(dt):
# going to store the old position, for collision purposes
old_pos = vec2d(cell.x, cell.y)
# move the cell towards it's velocity
cell.x += cell.velocity[0] * dt
cell.y += cell.velocity[1] * dt
# check for collisions against wall
# if one is found, get new position, to allow "sliding"
# against them
radius = cell_image.width / 2 * 0.8
i = 0
if cell.velocity != (0, 0):
while i < len(lines):
p1 = vec2d(lines[i], lines[i + 1])
p2 = vec2d(lines[i + 2], lines[i + 3])
line = p2 - p1
normal = line.perpendicular_normal()
vec = (cell.x, cell.y) + radius * normal
intersects = line_intersect(old_pos, vec, p1, p2)
if not intersects is None:
new_pos = calc_new_pos(old_pos, vec, p1, p2)
new_pos -= radius * normal
cell.x = new_pos.x
cell.y = new_pos.y
elif circle_point_intersect(cell.position, radius, p1):
direction = cell.position - p1
length = direction.length
move_by_distance = radius - length
new_pos = cell.position + direction.normalized() * move_by_distance
cell.x = new_pos.x
cell.y = new_pos.y
i += 4
def draw(self, screen, focus, alpha):
screen_pos = vec2d(int(self.pos[0] * CELL_SIZE + 15 - focus[0]), int(self.pos[1] * CELL_SIZE + 15 - focus[1]))
sprite_size = self.sprite.get_size()
screen_iso_pos = vec2d(screen_pos[0] - screen_pos[1], int((screen_pos[0] + screen_pos[1])/2))
screen.blit(self.sprite,
(int(screen_iso_pos[0] - sprite_size[0] // 2),
int(screen_iso_pos[1] - sprite_size[1] // 2)),
special_flags=pygame.BLEND_MULT)
def __init__(self):
main = MainBase()
main.pos = vec2d(300, 300)
main.target = vec2d(main.pos[0] + 10, main.pos[1])
out = Outpost()
out.pos = vec2d(200, 200)
out.target = vec2d(out.pos[0] + 10, out.pos[1])
self.buildings = [main, out]
def test_drone_update(self):
drone = Drone()
drone.pos = vec2d(100, 100)
target = vec2d(200, 200)
drone.target.append(target)
drone.update()
self.assertEqual(drone.pos, (103, 103))
self.assertEqual(drone.power, 255-0.1)
def __init__(self, pid, x, y, direction, damage, power):
self.pid = pid
self.pos = vec2d(x, y)
self.init_pos = vec2d(x, y)
self.direction = direction
self.damage = damage
self.gone = False
self.destroy_after = power
def __init__(self, surface, image, pos=vec2d(0,0), speed=vec2d(1,0), gravity=1): self.surface = surface self.surfaceSize = vec2d(self.surface.get_size()) self.image = pygame.image.load(image) self.pos = pos self.speed = speed self.gravity = gravity self.size = vec2d(self.image.get_size()) self.rect = Rect(self.pos.x, self.pos.y, self.size.x, self.size.y)
def get_fang_pos(self):
base_angle = self.head.direction.angle
radius = self.head.radius * 0.5
top = vec2d(radius, 0)
top.angle = base_angle - self.pos_angle
bottom = vec2d(radius, 0)
bottom.angle = base_angle + self.pos_angle
self.top_pos = self.pos + top
self.bot_pos = self.pos + bottom
def __init__(
self, screen, creep_image,init_position,
init_direction, speed, **kv):
""" Create a new Creep.
screen:
The screen on which the creep lives (must be a
pygame Surface object, such as pygame.display)
creep_image:
Image (surface) object for the creep
field:
A Rect specifying the 'playing field' boundaries.
The Creep will bounce off the 'walls' of this
field.
init_position:
A vec2d or a pair specifying the initial position
of the creep on the screen.
init_direction:
A vec2d or a pair specifying the initial direction
of the creep. Must have an angle that is a
multiple of 45 degres.
speed:
Creep speed, in pixels/millisecond (px/ms)
**kw:
passing parameters
"""
Sprite.__init__(self)
self.screen = screen
self.speed = speed
self.field = screen.get_rect()
# base_image holds the original image, positioned to
# angle 0.
# image will be rotated.
#
self.base_image = creep_image
self.image = self.base_image
self.image_w, self.image_h = self.image.get_size()
# A vector specifying the creep's position on the screen
#
self.pos = vec2d(init_position)
# The direction is a normalized vector
#
self.direction = vec2d(init_direction).normalized()
#
self.exploding = 0
#
for k,v in kv.items():
self.__dict__[k] = v
def mouse_click_event(self, pos):
if self.btntype == "Close":
if self._point_is_inside(vec2d(pos)):
self.state = Button.CLICKED
elif self.btntype == "Toggle":
if self._point_is_inside(vec2d(pos)):
self.state = not self.state
self.toggle = not self.toggle
game.buttons[0].state = not Game.buttons[0].state
def __init__(self):
self.ico_pic = pygame.image.load("sprites/generator_ico.png")
self.up_ico = pygame.image.load("sprites/icons/up_ico.png")
self.image = Animation()
self.image.setup("outpost")
self.size = 35
self.level = 0
self.target = vec2d(0, 0)
self.fire_target = vec2d(0, 0)
def __init__(self, surface, image, pos=vec2d(0, 0), speed=vec2d(1, 0), gravity=1):
self.surface = surface
self.surfaceSize = vec2d(self.surface.get_size())
self.image = pygame.image.load(image)
self.pos = pos
self.speed = speed
self.gravity = gravity
self.size = vec2d(self.image.get_size())
self.rect = Rect(self.pos.x, self.pos.y, self.size.x, self.size.y)
def __init__(self, body_image, init_position, init_direction, screen, displacement):
pygame.sprite.Sprite.__init__(self)
self.body_img = pygame.image.load(body_image).convert_alpha()
self.image=self.body_img
self.pos=vec2d(init_position)
self.direction=vec2d(init_direction).normalized()
self.displacement=displacement
self.screen=screen
self.calorie=randint(400,500)
def movedrone(target, pos):
if target.selected.single_t == 0:
dtarget = vec2d(pos[0] + target.hud.pos[0], pos[1] + target.hud.pos[1])
target.selected.target.append(dtarget)
else:
targets = []
dtarget = vec2d(pos[0] + target.hud.pos[0], pos[1] + target.hud.pos[1])
targets.append(dtarget)
target.selected.target = targets
def __init__(self, screen, creep_image, explosion_images, field,
init_position, init_direction, speed):
""" Create a new Creep.
screen:
The screen on which the creep lives (must be a
pygame Surface object, such as pygame.display)
creep_image:
Image (surface) object for the creep
explosion_images:
A list of image objects for the explosion
animation.
field:
A Rect specifying the 'playing field' boundaries.
The Creep will bounce off the 'walls' of this
field.
init_position:
A vec2d or a pair specifying the initial position
of the creep on the screen.
init_direction:
A vec2d or a pair specifying the initial direction
of the creep. Must have an angle that is a
multiple of 45 degres.
speed:
Creep speed, in pixels/millisecond (px/ms)
"""
Sprite.__init__(self)
self.screen = screen
self.speed = speed
self.field = field
# base_image holds the original image, positioned to
# angle 0.
# image will be rotated.
#
self.base_image = creep_image
self.image = self.base_image
self.explosion_images = explosion_images
# A vector specifying the creep's position on the screen
#
self.pos = vec2d(init_position)
# The direction is a normalized vector
#
self.direction = vec2d(init_direction).normalized()
self.state = Creep.ALIVE
self.health = 15
def closest_point(self, point):
closest = 99999
the_point = vec2d(point)
for p in self.pointlist:
p = vec2d(p)
dist = p.get_distance(the_point)
if closest > dist:
closest = dist
the_point = p
return the_point
def helpdrone(target, pos):
for drone in target.drones:
if drone.pos.get_distance(vec2d(pos[0] + target.hud.pos[0], pos[1] + target.hud.pos[1])) < 20 and drone.power < 1:
if drone is not target.selected:
target.selected.target.append(target.buildings[0].pos)
target.selected.task = 2
target.selected.target.append(vec2d(int(drone.pos[0]), int(drone.pos[1])))
print("Going to charge another drone!")
return 1
return 0
def __init__(self, pos = None):
if pos == None:
self.pos = vec2d((randrange(100,401)*1.00),(randrange(100,401)*1.00))
else:
self.pos = pos
self.mass = float(randrange(5,15))
self.color = (self.mass/100.0)*255.0
self.direction = vec2d(0,0)
self.dead = False
self.rect = pygame.Rect(self.pos.x, self.pos.y, int(self.mass/3), int(self.mass/3))
def __init__(self, surface, pos=vec2d(0, 0), size=vec2d(20, 20), color=(255, 0, 0), speed=vec2d(1, 0), gravity=0):
""" creates an object that moves around the screen """
self.surface = surface
self.surfaceSize = vec2d(self.surface.get_size())
self.pos = pos
self.size = size
self.speed = speed
self.gravity = gravity
self.rect = Rect(self.pos.x, self.pos.y, self.size.x, self.size.y)
self.color = color
def __init__(self, filename, position, direction=(1, 0)):
Sprite.__init__(self)
self.filename = filename
self.position = vec2d(position)
self.direction = vec2d(direction).normalized()
self.prev_direction = vec2d(self.direction)
self.base_image = load_image(filename)
self.layer = 0
self.wheeled = False
self._render()
def closest_point(self, point):
closest = 99999
the_point = vec2d(point)
for p in self.pointlist:
p = vec2d(p)
dist = p.get_distance(the_point)
if closest > dist:
closest = dist
the_point = p
return the_point
def displace(self, a, b, amount):
av = vec2d(a)
bv = vec2d(b)
lv = bv - av
hv = lv / 2
jv = av + hv
jv.length += rai(-amount, amount)
line1 = [av.inttup(), jv.inttup()]
line2 = [jv.inttup(), bv.inttup()]
return line1, line2
def displace(self, a, b, amount):
av = vec2d(a)
bv = vec2d(b)
lv = bv - av
hv = lv/2
jv = av + hv
jv.length += rai(-amount, amount)
line1 = [av.inttup(), jv.inttup()]
line2 = [jv.inttup(), bv.inttup()]
return line1, line2
def __init__(self,screen,img_filename,init_position,init_direction,speed):
pygame.sprite.Sprite.__init__(self)
self.screen = screen
self.speed = speed
self.base_image_0 = creep_filenames[0]
self.base_image_45 = creep_filenames[1]
self.pos = vec2d(init_position)
self.prev_pos = vec2d(self.pos)
self.direction = vec2d(init_direction).normalized()
def __init__(self, pos, kind, genes = {}):
self.pos = vec2d(pos[0]*1.0, pos[1]*1.0)
if self.pos.x < 0:
self.pos.x += 700
elif self.pos.x > 700:
self.pos.x -= 700
self.dir = vec2d(0,1)
self.kind = kind #this will be Grass for the first seeds
self.sprout = False
self.genes = genes
def __init__(self, screen, init_position, init_direction, speed):
pygame.sprite.Sprite.__init__(self)
self.screen = screen
# Skapa en rect! för ritning och kollisionshantering
init_x, init_y = init_position
self.rect = pygame.Rect(init_x, init_y, 16, 16)
# Start-position. En vektor
self.pos = vec2d(init_position)
# Start-riktning. En normaliserad vektor
self.direction = vec2d(init_direction).normalized()
self.speed = speed
def __init__(self, screen, img_filename, init_position, init_direction,
speed):
pygame.sprite.Sprite.__init__(self)
self.screen = screen
self.speed = speed
self.base_image = pygame.image.load(img_filename).convert_alpha()
self.image = self.base_image
self.pos = vec2d(init_position)
self.direction = vec2d(init_direction).normalized()
def __init__(self, screen, enemyImg, startPosition, direction, speed):
Sprite.__init__(self)
self.screen = screen
self.speed = speed
self.base_image = pygame.image.load("dalek.png").convert_alpha()
self.image = self.base_image
self.pos = vec2d(startPosition)
self.direction = vec2d(direction).normalized()
def run_game():
pygame.init()
screen = pygame.display.set_mode((SCREEN_WIDTH, SCREEN_HEIGHT), 0, 32)
clock = pygame.time.Clock()
creep = pygame.image.load(CREEP_FILENAME).convert_alpha()
autocreep = Creep(CREEP_FILENAME, vec2d(300, 100), vec2d(1, 1), 0.1,
screen)
creep_pos = vec2d(220, 200)
creep_speed = 0.09 # px per ms
creep_dir = vec2d(-1, -1).normalized()
while True:
time_passed = clock.tick(35)
movement_dir = 0
rotation_dir = 0
for event in pygame.event.get():
if event.type == pygame.QUIT:
exit_game()
elif event.type == pygame.KEYDOWN:
if event.key == pygame.K_LEFT:
rotation_dir = -1
elif event.key == pygame.K_RIGHT:
rotation_dir = 1
pressed_keys = pygame.key.get_pressed()
if pressed_keys[pygame.K_UP]:
movement_dir = 1
elif pressed_keys[pygame.K_DOWN]:
movement_dir = -1
creep_dir.rotate(45 * rotation_dir)
creep_pos += creep_dir * movement_dir * creep_speed * time_passed
rotated_creep = pygame.transform.rotate(creep, -creep_dir.angle)
w, h = rotated_creep.get_size()
creep_draw_pos = vec2d(creep_pos.x - w / 2, creep_pos.y - h / 2)
screen.fill(BG_COLOR)
autocreep.update(time_passed)
autocreep.blitme()
#~ screen.blit(autocreep.image, autocreep.rect)
screen.blit(rotated_creep, creep_draw_pos)
pygame.display.flip()
def make_line(a, b):
av = vec2d(a)
bv = vec2d(b)
line = []
between = bv - av
endl = between.length
l = 1
while l < endl:
between.length = l
x = av + between
line.append(x.inttup())
l += 1
return line
def __init__(self, surface, radius, pos_init, dir_init, speed,
SCREEN_WIDTH, SCREEN_HEIGHT, jitter_speed):
self.windowSurface = surface
self.SCREEN_WIDTH = SCREEN_WIDTH
self.SCREEN_HEIGHT = SCREEN_HEIGHT
self.BOXWIDTH = 100
self.jitter_speed = jitter_speed
self.speed = speed
self.radius = radius
self.pos = vec2d(pos_init)
self.direction = vec2d(dir_init)
self.direction.normalize() # normalized
def update(self, time_passed):
""" Update the creep.
time_passed:
The time passed (in ms) since the previous update.
"""
if self.state == Creep.ALIVE:
# Maybe it's time to change the direction ?
#
self._compute_direction(time_passed)
# Make the creep image point in the correct direction.
# Note that two images are used, one for diagonals
# and one for horizontals/verticals.
#
# round() on the angle is necessary, to make it
# exact, despite small deviations that may result from
# floating-point calculations
#
if int(round(self.direction.angle)) % 90 == 45:
self.image = pygame.transform.rotate(
self.base_image_45, -(self.direction.angle + 45))
elif int(round(self.direction.angle)) % 90 == 0:
self.image = pygame.transform.rotate(
self.base_image_0, -self.direction.angle)
else:
assert False
# Compute and apply the displacement to the position
# vector. The displacement is a vector, having the angle
# of self.direction (which is normalized to not affect
# the magnitude of the displacement)
#
displacement = vec2d(
self.direction.x * self.speed * time_passed,
self.direction.y * self.speed * time_passed)
self.prev_pos = vec2d(self.pos)
self.pos += displacement
# When the image is rotated, its size is changed.
self.image_w, self.image_h = self.image.get_size()
elif self.state == Creep.EXPLODING:
if self.explode_animation.active:
self.explode_animation.update(time_passed)
else:
self._die()
elif self.state == Creep.DEAD:
pass
def displace(self, a, b, amount):
"""
Here we displace each individual line.
This method is called from the displacement method.
"""
av = vec2d(a)
bv = vec2d(b)
lv = bv - av
hv = lv / 2
jv = av + hv
jv.length += rai(-amount, amount)
line1 = [av.inttup(), jv.inttup()]
line2 = [jv.inttup(), bv.inttup()]
return line1, line2
def __init__(self):
infoObject = pygame.display.Info()
print infoObject.current_w - 100, infoObject.current_h - 100
self.w, self.h = infoObject.current_w - 100, infoObject.current_h - 100
self.topx = vec2d(self.w / 2, self.h / 2)
PygameHelper.__init__(self,
size=(self.w, self.h),
fill=((255, 255, 255)))
self.bound = 50
self.e = Environment()
self.mode_build = 0 ### 0 == Agent, 1 == Goal, 2 == landmark, 3 == nest, 4 == pipe
self.actiontext = ""
self.first = 0
self.firstpos = vec2d(0, 0)
def make_line(a, b):
a = (int(round(a[0])), int(round(a[1])))
b = (int(round(b[0])), int(round(b[1])))
av = vec2d(a)
bv = vec2d(b)
line = []
between = bv - av
endl = between.length
l = 1
while l < endl:
between.length = l
x = av + between
line.append(x.inttup())
l += 1
return line
def diagram_lists(points):
point_dict = {item: [] for item in points}
for y in xrange(size):
for x in xrange(size):
p = vec2d(x, y)
minum = 999999
a = (0, 0)
for i in points:
i = vec2d(i)
dist = i.get_distance(p)
if minum > dist:
minum = dist
a = i.inttup()
point_dict[a].append(p.inttup())
return point_dict
def __init__(self, screen, img_filename, init_position, init_direction,
speed):
Sprite.__init__(self)
self.screen = screen
self.speed = speed
self.base_image = pygame.image.load('dalek.png')
self.image = self.base_image
self.pos = vec2d(init_position)
self.direction = vec2d(init_direction).normalized()
self.Rect = self.image.get_rect()
