def __init__(self, width=853, height=480, show_fps=False):
self.size = v(width, height)
self.show_fps = show_fps
self.next_group_num = 0
self.controls = {
key.LEFT: Control.MoveLeft,
key.RIGHT: Control.MoveRight,
key.UP: Control.MoveUp,
key.DOWN: Control.MoveDown,
key.SPACE: Control.Attack,
key._1: Control.Rotate1,
key._2: Control.Rotate2,
key._3: Control.Rotate3,
key._4: Control.Rotate4,
key._5: Control.Rotate5,
key._6: Control.Rotate6,
}
self.control_state = [False] * (len(dir(Control)) - 2)
self.scroll = v(0,0)
self.filename = None
self.enemy = None
self.enemy_number = 1
self.level = 1
self.own_enemies = False
self.camera = None
self.message = None
self.timers = []
def __init__(self, world, space, pos, color, capsules, radius, mass=2, fixed=False, orientation=v(1, 0, 0, 0)):
"capsules is a list of (start, end) points"
self.capsules = capsules
self.body = ode.Body(world)
self.body.setPosition(pos)
self.body.setQuaternion(orientation)
m = ode.Mass()
# computing MOI assuming sphere with .5 m radius
m.setSphere(mass/(4/3*math.pi*.5**3), .5) # setSphereTotal is broken
self.body.setMass(m)
self.geoms = []
self.geoms2 = []
for start, end in capsules:
self.geoms.append(ode.GeomTransform(space))
x = ode.GeomCapsule(None, radius, (end-start).mag())
self.geoms2.append(x)
self.geoms[-1].setGeom(x)
self.geoms[-1].setBody(self.body)
x.setPosition((start+end)/2 + v(random.gauss(0, .01), random.gauss(0, .01), random.gauss(0, .01)))
a = (end - start).unit()
b = v(0, 0, 1)
x.setQuaternion(vector.axisangle_to_quat((a%b).unit(), -math.acos(a*b)))
self.color = color
self.radius = radius
if fixed:
self.joint = ode.FixedJoint(world)
self.joint.attach(self.body, None)
self.joint.setFixed()
def __init__(self, world, jointdef, body1, body2):
self.jointdef = jointdef
self.world = world
self.joint = self.make_joint(jointdef)
self.body1 = body1
self.body2 = body2
self.b1_anchor = v(*self.jointdef.localAnchor1) / body1.scale
self.b2_anchor = v(*self.jointdef.localAnchor2) / body2.scale
def union(self, ano):
l, t = self.tl
al, at = ano.tl
r, b = self.br
ar, ab = ano.br
return Rect(v(min(l, al), max(t, at)), v(max(r, ar), min(b, ab)))
def draw_level(self, pos):
p = pos
for i in range(self.part.level):
self.star.blit(*p)
p += v(self.star.width, 0)
if self.part.can_upgrade():
p = pos + v(self.healthbar_empty.width - self.upgrade_button.width, 0)
self.upgrade_button.blit(*p)
self.upgrade_button_rect = Rect(p + v(0, self.upgrade_button.height), p + v(self.upgrade_button.width, 0))
def __init__(self, world, monster, camera):
self.world = world
self.monster = monster
self.camera = camera
self.icons = {}
self.init_icons()
self.scroll_y = 0
self.mousedown = False
self.parthud = None
self.mutagen_count = Digits(v(20, 410), anchor=Digits.ANCHOR_LEFT)
self.cost_display = Digits(v(200, 410), anchor=Digits.ANCHOR_LEFT)
self.cost_value = None
def get_bounds(self):
ang = self.sprite.rotation * math.pi / 180
bounds = None
basepos = v(*self.sprite.position)
for s in self.get_shapes():
center = v(*s.center)
center = center.rotated(ang) + basepos
diag = v(-s.radius, s.radius)
sbounds = Rect(center + diag, center - diag)
if bounds is None:
bounds = sbounds
else:
bounds = bounds.union(sbounds)
return bounds
def __init__(self, world, pos=(0,0), radius=50, bearing=0, image_file=None, name=None, **kwargs):
self.world = world
self.pos = v(pos)
self.old_pos = v(pos)
self.radius = radius
self.bearing = bearing
self.old_bearing = bearing
self.image_file = image_file
self.image = squirtle.SVG(data.file_path(image_file), anchor_x='center', anchor_y='center')
self.dead = False
self.impulse = v((0,0))
self.name = name
# do not use
self.scale = 0.0
self.z = 0
def load(cls):
PartHud.load()
Digits.load()
imgs = {}
for icon in ICONS:
img = pyglet.resource.image(icon.sprite)
img.anchor_x = 90 - ICON_HALF
img.anchor_y = ICON_HALF
imgs[icon.name] = img
cls.mutagen_label = pyglet.sprite.Sprite(pyglet.resource.image("ui/mutagen.png"))
cls.cost_label = pyglet.sprite.Sprite(pyglet.resource.image("ui/cost.png"))
cls.mutagen_label.position = v(20, 440)
cls.cost_label.position = v(200, 443)
cls.images = imgs
def tick(self):
# objects by default continue to move in a straight line (see Newton)
delta = self.pos - self.old_pos
self.old_pos = self.pos
dtheta = self.bearing - self.old_bearing
self.old_bearing = self.bearing
self.bearing += dtheta * ANGULAR_DRAG
real_old_pos = self.old_pos
# add drag forces to delta
drag = delta * -delta.length * self.radius * self.world.drag
delta += drag
# add other accumulated forces to delta
delta += self.impulse
self.impulse = v((0,0))
if not self.collides:
self.pos += delta
else:
steps = 1 + int(1.05 * delta.length / self.radius)
sub_delta = delta / steps
for ii in xrange(steps):
self.pos += sub_delta
original_pos = self.pos
check_collisions = True
tries = 0
while check_collisions:
check_collisions = False
tries += 1
if tries > 200:
# this is a problem, so rather than take the game down, we do something which just
# looks bad
self.pos = original_pos
return
for wall in self.world.static.overlaps(self):
cp = wall.closest_point(self.pos)
approach = (self.pos - cp)
if approach.length < self.radius - EPSILON:
self.pos = cp + approach.normalised() * self.radius
check_collisions = True
# now, the actor is definitely in a safe place
# work backwards to work out its eventual reflection and update old_pos to make it bounce
displacement = self.pos - original_pos
if displacement.length > 0:
mirror_point = original_pos + displacement * 0.5
mirror_line = Line(displacement.normalised(), mirror_point * displacement.normalised())
self.old_pos = mirror_line.reflect(self.old_pos)
sub_delta = mirror_line.parallel_through_origin.reflect(sub_delta)
self.old_pos = self.pos + (self.old_pos - self.pos) * ELASTICITY
def __init__(self,
world,
space,
pos,
color,
capsules,
radius,
mass=2,
fixed=False,
orientation=v(1, 0, 0, 0)):
"capsules is a list of (start, end) points"
self.capsules = capsules
self.body = ode.Body(world)
self.body.setPosition(pos)
self.body.setQuaternion(orientation)
m = ode.Mass()
# computing MOI assuming sphere with .5 m radius
m.setSphere(mass / (4 / 3 * math.pi * .5**3),
.5) # setSphereTotal is broken
self.body.setMass(m)
self.geoms = []
self.geoms2 = []
for start, end in capsules:
self.geoms.append(ode.GeomTransform(space))
x = ode.GeomCapsule(None, radius, (end - start).mag())
self.geoms2.append(x)
self.geoms[-1].setGeom(x)
self.geoms[-1].setBody(self.body)
x.setPosition((start + end) / 2 + v(random.gauss(
0, .01), random.gauss(0, .01), random.gauss(0, .01)))
a = (end - start).unit()
b = v(0, 0, 1)
x.setQuaternion(
vector.axisangle_to_quat((a % b).unit(), -math.acos(a * b)))
self.color = color
self.radius = radius
if fixed:
self.joint = ode.FixedJoint(world)
self.joint.attach(self.body, None)
self.joint.setFixed()
def make_projectile(self, world, pos, bearing):
p = Projectile(world,
pos=pos,
radius=self.projectile_radius,
bearing=bearing,
image_file=self.projectile_image)
d = (random.random() - 0.5) * self.scatter
p.apply_impulse(v((self.muzzle_velocity, d)).rotated(bearing))
p.force = self.projectile_force
return p
def draw(self, camera):
frac = min(1, float(self.part.health) / self.part.get_max_health())
pos = self.part.get_position() + v(0, self.part.get_base_shape().radius)
pos = camera.world_to_screen(pos)
pos = v(int(pos.x + 0.5), int(pos.y + 0.5))
gl.glEnable(gl.GL_BLEND)
gl.glBlendFunc(gl.GL_SRC_ALPHA, gl.GL_ONE_MINUS_SRC_ALPHA)
w = self.healthbar_empty.width
h = self.healthbar_empty.height
p = pos - v(w / 2, 0)
self.healthbar_empty.blit(*p)
fillw = frac * w
fill = self.healthbar_full.get_region(0, 0, fillw, h)
fill.blit(*p)
if hasattr(self.part, "level"):
self.draw_level(p + v(0, 20))
def load_resource(resource_file):
with pyglet.resource.file('components/%s.json' % resource_file) as f:
definition = json.loads(f.read())
# load the associated image
img = pyglet.resource.image(definition['name'])
# <mauve> [offset is] the amount you have to translate the image
# <mauve> So -1 * the position of the centre in the image
# also we have to flip the y axis because this is pyglet
img.anchor_x = -definition['offset'][0]
img.anchor_y = img.height + definition['offset'][1]
definition['img'] = img
offset = v(definition['offset'])
circles = [Circle(v(0, 0), definition['radius'])]
for p in definition.get('points', []):
centre = v(p['offset']) + offset
circles.append(Circle(v(centre.x, -centre.y), p['radius']))
definition['shapes'] = circles
return definition
def flock(self, sense_radius=500, target_sep=100, effect=1):
flock_vector = v((0,0))
for other in self.neighbours(sense_radius):
if self.__class__ == other.__class__ and self.sees(other, sight_radius=sense_radius):
relative_pos = other.pos - self.pos
d = relative_pos.length
if d:
sgn = 1 if d > target_sep else -1
flock_vector += (relative_pos.normalised() * sgn)
if flock_vector.length > 0:
self.apply_impulse(flock_vector.normalised() * effect)
def draw(self):
glBegin(GL_LINES)
for x in xrange(-10, 10+1):
for y in xrange(-10, 10+1):
pos = v(x, y, 0)
vel = self.func(pos)
glColor3d(1, 0, 0)
glVertex3f(*pos-vel/2)
glColor3d(1, 1, 0)
glVertex3f(*pos+vel/2)
glEnd()
def flock(self, sense_radius=500, target_sep=100, effect=1):
flock_vector = v((0, 0))
for other in self.neighbours(sense_radius):
if self.__class__ == other.__class__ and self.sees(
other, sight_radius=sense_radius):
relative_pos = other.pos - self.pos
d = relative_pos.length
if d:
sgn = 1 if d > target_sep else -1
flock_vector += (relative_pos.normalised() * sgn)
if flock_vector.length > 0:
self.apply_impulse(flock_vector.normalised() * effect)
def init(self, world, pos=v(0, -10, 2)):
self.world = world
self.pos = pos
self.display_flags = pygame.DOUBLEBUF | pygame.OPENGL | pygame.RESIZABLE
self.display = pygame.display.set_mode((640, 480), self.display_flags)
self.clock = pygame.time.Clock()
self.pitch = self.yaw = 0
self.grabbed = False
self.fovy = 100
def init(self, world, pos=v(0, -10, 2)):
self.world = world
self.pos = pos
self.display_flags = pygame.DOUBLEBUF|pygame.OPENGL|pygame.RESIZABLE
self.display = pygame.display.set_mode((640, 480), self.display_flags)
self.clock = pygame.time.Clock()
self.pitch = self.yaw = 0
self.grabbed = False
self.fovy = 100
def update_velocity(self):
#doesn't actually speed things up
#if (self.dest != self.last_dest):
direction = (self.dest - self.pos)
if direction.length2 > self.speed**2:
#avoid scaled_to here - we can do better
old_length = direction.length
scale_factor = self.speed / old_length
direction = v(
(direction[0] * scale_factor, direction[1] * scale_factor))
self.vel = direction
return self.vel
def start(self):
Monster.load_all()
self.window = pyglet.window.Window(width=self.size.x, height=self.size.y, caption=name)
self.camera = Camera(v(self.size.x, self.size.y) * 0.5, self.size.x, self.size.y)
Background.load()
self.background = Background(self.window)
self.world = World()
self.monster = Monster.create_initial(self.world, v(400, 80))
self.monster.add_death_listener(self.show_game_over)
self.world.add_monster(self.monster)
self.auto_monster()
if self.filename is not None:
self.world.add_monster(Monster.enemy_from_json(self.world, self.filename))
self.show_message('fight', 2)
else:
self.set_timer(self.spawn_next_enemy, 1.5)
self.show_message('get-ready')
Shelf.load()
self.hud = Shelf(self.world, self.monster, self.camera)
self.fps_display = pyglet.clock.ClockDisplay()
pyglet.clock.schedule_interval(self.update, 1/target_fps)
self.window.set_handlers(
on_draw=self.on_draw,
on_key_press=self.on_key_press,
on_key_release=self.on_key_release,
on_mouse_press=self.hud.on_mouse_press,
on_mouse_release=self.hud.on_mouse_release,
on_mouse_motion=self.hud.on_mouse_motion,
on_mouse_drag=self.hud.on_mouse_drag,
on_mouse_scroll=self.hud.on_mouse_scroll,
)
pyglet.app.run()
def update_velocity(self):
direction = self.dest - self.pos
if self.vel is None or self.vel.is_zero:
if direction.length2 > self.speed**2:
#avoid scaled_to here - we can do better
old_length = direction.length
scale_factor = self.speed / old_length
direction = v(
(direction[0] * scale_factor, direction[1] * scale_factor))
self.vel = direction
else:
tturn = self.vel.signed_angle_to(direction)
if abs(tturn) <= self.turn_rate:
if direction.length2 > self.speed**2:
#avoid scaled_to here - we can do better
old_length = direction.length
scale_factor = self.speed / old_length
direction = v((direction[0] * scale_factor,
direction[1] * scale_factor))
self.vel = direction
else:
self.vel = self.vel.rotated(cmp(tturn, 0) * self.turn_rate)
return self.vel
def kill(self):
for p, j in self._joints:
p.kill()
if self._parent is not None:
self._parent._joints = [(p, j) for p, j in self._parent._joints if p is not self]
for p, radius in self.get_shapes():
for i in range(int(radius * radius / 100.0)):
off = v(random.gauss(0, radius * 0.5), random.gauss(0, radius * 0.5))
self.world.spawn(Blood(self.get_position() + p + off, name=''))
self.world.destroy(self)
self.monster.remove_part(self)
if self._parent is None:
self.monster.kill()
def update(self, dt):
if self.controller:
self.controller.update(dt)
if self.moving in [LEFT, RIGHT]:
self.phase += self.moving * dt * 2
for p in self.parts:
if not isinstance(p, Leg):
continue
ppos = p.get_position()
step = math.sin(ppos.x / 50.0 + self.phase)
f = step * 0.5 + 0.5
p.set_position(ppos + v(self.moving * 200 * f * dt, 10 * f * dt))
rot = p.body.get_rotation()
p.body.set_rotation(rot + self.moving * step * dt)
self.moving = 0
def on_mouse_press(self, x, y, button, modifiers):
self.draggedicon = self.icon_for_point(x, y)
if self.parthud:
s = v(x, y)
if self.parthud.upgrade_button_rect and self.parthud.upgrade_button_rect.contains(s):
self.parthud.part.upgrade()
else:
wpos = self.camera.screen_to_world(s)
for m in self.world.monsters:
part = m.colliding_point(wpos)
if part and part is self.parthud.part:
break
else:
self.parthud = None
self.mousedown = True
def on_mouse_motion(self, x, y, dx, dy):
icon = self.icon_for_point(x, y)
if icon:
self.cost_value = self.icons[icon].cost
else:
self.cost_value = None
if self.parthud:
s = v(x, y)
if self.parthud.upgrade_button_rect and self.parthud.upgrade_button_rect.contains(s):
self.cost_value = self.parthud.part.upgrade_cost()
if self.parthud.locked:
return
wpos = self.camera.screen_to_world(v(x, y))
for m in self.world.monsters:
part = m.colliding_point(wpos)
if part:
break
else:
if self.parthud and not self.parthud.locked:
self.parthud = None
return
if self.parthud is None or part is not self.parthud.part:
self.parthud = PartHud(part)
def __init__(self,
world,
pos=(0, 0),
radius=50,
bearing=0,
image_file=None,
name=None,
**kwargs):
self.world = world
self.pos = v(pos)
self.old_pos = v(pos)
self.radius = radius
self.bearing = bearing
self.old_bearing = bearing
self.image_file = image_file
self.image = squirtle.SVG(data.file_path(image_file),
anchor_x='center',
anchor_y='center')
self.dead = False
self.impulse = v((0, 0))
self.name = name
# do not use
self.scale = 0.0
self.z = 0
def on_mouse_release(self, x, y, button, modifiers):
if self.draggedpart:
wpos = self.camera.screen_to_world(v(x, y))
self.draggedpart.set_position(wpos)
try:
self.monster.attach_and_grow(self.draggedpart)
except ValueError:
pass
else:
self.monster.spend_mutagen(self.draggedpart.cost)
elif self.parthud:
self.parthud.locked = True
self.draggedpart = None
self.draggedicon = None
self.mousedown = False
def draw(self):
q = gluNewQuadric()
glColor3f(*self.color)
with GLMatrix:
rotate_to_body(self.body)
for start, end in self.capsules:
with GLMatrix:
glTranslate(*start)
gluSphere(q, self.radius, 30, 15)
with GLMatrix:
glTranslate(*end)
gluSphere(q, self.radius, 30, 15)
with GLMatrix:
glTranslate(*start)
a = (end - start).unit()
b = v(0, 0, 1)
glRotate(-math.degrees(math.acos(a*b)), *(a%b).unit())
gluCylinder(q, self.radius, self.radius, (end - start).mag(), 10, 1)
def on_mouse_drag(self, x, y, dx, dy, button, modifiers):
if x > (853 - ICON_HEIGHT - MARGIN) and not self.draggedpart:
self.scroll_y += dy
wpos = self.camera.screen_to_world(v(x, y))
if self.draggedicon and x < (853 - ICON_HEIGHT - MARGIN):
self.draggedpart = self.create_virtual_part(self.draggedicon, wpos)
self.draggedicon = None
if self.draggedpart:
self.draggedpart.set_position(wpos)
attachment = self.monster.attachment_point(self.draggedpart)
if attachment is not None:
self.draggedpart.position_to_joint(attachment[1] - attachment[2])
self.draggedpart.set_position(attachment[1])
self.draggedpart.set_style(STYLE_VALID)
else:
self.draggedpart.set_style(STYLE_INVALID)
def draw(self):
q = gluNewQuadric()
glColor3f(*self.color)
with GLMatrix:
rotate_to_body(self.body)
for start, end in self.capsules:
with GLMatrix:
glTranslate(*start)
gluSphere(q, self.radius, 30, 15)
with GLMatrix:
glTranslate(*end)
gluSphere(q, self.radius, 30, 15)
with GLMatrix:
glTranslate(*start)
a = (end - start).unit()
b = v(0, 0, 1)
glRotate(-math.degrees(math.acos(a * b)), *(a % b).unit())
gluCylinder(q, self.radius, self.radius,
(end - start).mag(), 10, 1)
def create_body(self, world):
"""Create the physics body for the part"""
#print "Spawning", self.__class__.__name__, self.name + self.type
self.body = world.create_body(self.get_shapes(), collision_class=self.name + self.type)
self.body.set_position(v(*self.sprite.position))
def random_point_on_circle(centre, radius):
from vector import Vector as v
import random
return centre + v((radius, 0)).rotated(random.random() * 360)
from vehicle import Vehicle
from vector import Vector as v
from world import World, Path
from gui import GUI
from PyQt5 import QtGui, QtCore, QtWidgets
if __name__ == "__main__":
app = QtWidgets.QApplication(sys.argv)
dw = QtWidgets.QDesktopWidget()
w = dw.width() * 0.9
h = dw.height() * 0.8
v0 = v(0, 0)
vel = v(10, 10)
v1 = v(20, 20)
paths = []
vehicleCount = 8
path1 = Path([
v(100, 100),
v(200, 100),
v(300, 100),
v(400, 100),
v(500, 100),
v(500, 200),
v(500, 300),
v(500, 400),
def map_centre(self):
return v((self.w / 2, self.h / 2))
def int_point(pt):
return v((pt.x // 1.0, pt.y // 1.0))
def bumble(self):
self.apply_impulse(v((random.gauss(0, 1), random.gauss(0, 1))))
def initial_setup(self):
self.game.add_plant_at(plant.Cherry, self.game.map_centre)
self.game.add_plant_at(plant.Daisy, self.game.map_centre + v((200, 0)))
self.game.add_plant_at(plant.Bluebell, self.game.map_centre - v((200, 0)))
def step(self):
dt = self.clock.tick()/1000
for event in pygame.event.get():
if event.type == pygame.MOUSEMOTION:
if self.grabbed:
self.yaw += event.rel[0]/100
self.pitch += -event.rel[1]/100
# caps it to a quarter turn up or down
self.pitch = min(max(self.pitch, -math.pi/2), math.pi/2)
elif event.type == pygame.KEYDOWN:
if event.key == pygame.K_TAB:
self.grabbed = not self.grabbed
pygame.event.set_grab(self.grabbed)
pygame.mouse.set_visible(not self.grabbed)
elif event.key == pygame.K_q:
sys.exit()
elif event.type == pygame.QUIT:
sys.exit()
elif event.type == pygame.VIDEORESIZE:
self.display = pygame.display.set_mode(event.size, self.display_flags)
glViewport(0, 0, self.display.get_width(), self.display.get_height())
rot_matrix = euler_matrix(self.yaw, self.pitch, 0)
forward = rotate_vec(v(1,0,0), rot_matrix)
left = rotate_vec(v(0,1,0), rot_matrix)
local_up = rotate_vec(v(0,0,1), rot_matrix)
keys = pygame.key.get_pressed()
speed = 50 if keys[pygame.K_LSHIFT] else 5
speed *= (.1 if keys[pygame.K_LCTRL] else 1)
if keys[pygame.K_w]: self.pos += forward*dt*speed
if keys[pygame.K_s]: self.pos += -forward*dt*speed
if keys[pygame.K_a]: self.pos += left*dt*speed
if keys[pygame.K_d]: self.pos += -left*dt*speed
if keys[pygame.K_SPACE]: self.pos += v(0, 0, 1)*dt*speed
if keys[pygame.K_c]: self.pos += v(0, 0, -1)*dt*speed
glMatrixMode(GL_PROJECTION)
glLoadIdentity()
perspective(self.fovy, self.display.get_width()/self.display.get_height(), 0.1)
glMatrixMode(GL_MODELVIEW)
glLoadIdentity()
# rotates into the FLU coordinate system
glMultMatrixf([
[ 0., 0.,-1., 0.],
[-1., 0., 0., 0.],
[ 0., 1., 0., 0.],
[ 0., 0., 0., 1.]
])
# after that, +x is forward, +y is left, and +z is up
glMultMatrixf(rot_matrix.T)
glTranslate(*-self.pos)
pos = self.pos
self.world.draw()
glDisable(GL_LIGHTING)
glDisable(GL_DEPTH_TEST)
with GLMatrix:
glTranslate(*self.pos + forward + left - local_up)
glBegin(GL_LINES)
for i in xrange(3):
glColor3f(*(j==i for j in xrange(3)))
glVertex3f(0, 0, 0)
glVertex3f(*(.1*(j==i) for j in xrange(3)))
glEnd()
glEnable(GL_DEPTH_TEST)
glEnable(GL_LIGHTING)
pygame.display.flip()
def __init__(self, world, pos):
super(SmokePuff, self).__init__(world,
pos=pos,
radius=10,
image_file="images/all/star.svgz")
self.apply_impulse(v((random.gauss(0, 2), random.gauss(0, 2))))
def accelerate(self):
self.apply_impulse(v((self.thrust, 0)).rotated(self.bearing))
def initial_setup(self):
self.game.add_plant_at(plant.Rose, v((0.2 * self.game.w, 0.5 * self.game.h)), True)
self.game.add_plant_at(plant.Apple, v((0.8 * self.game.w, 0.5 * self.game.h)), True)
self.game.add_creature_at(creatures.Ladybird, v((0.3 * self.game.w, 0.5 * self.game.h)))
self.game.add_creature_at(creatures.Dragonfly, v((0.7 * self.game.w, 0.5 * self.game.h)))
def tick(self):
for c in self.colliders():
if c.mass > 0:
rpn = (c.pos - self.pos).normalised()
c.apply_impulse(rpn * self.mass)
self.apply_impulse(-rpn * c.mass)
self.bearing += self.rotation
if self.thrust or self.lift:
dir = v((self.thrust, self.lift)).rotated(self.bearing)
self.apply_impulse(dir)
if self.engine_fx_cooldown <= 0:
self.world.new_active.add(
effects.SmokePuff(self.world, self.pos))
self.engine_fx_cooldown = SMOKEPUFF_RATE
else:
self.engine_fx_cooldown -= 1
old_pos = v(
self.pos
) #Need to store this, because we may mess with it to do bouncing, etc.
super(Player, self).tick()
def candidate_key(pt):
v1 = self.pipe[-1] - pt
v2 = self.pipe[-1] - old_pos
return v1.angle_to(v2) #, v1.length
def int_point(pt):
return v((pt.x // 1.0, pt.y // 1.0))
hooked = False
unhooked = []
swept_angle = 0
while True:
candidates = []
for wall in self.world.static.in_tri(self.pipe[-1], old_pos,
self.pos):
pt = int_point(wall.start) # why does this work?
if pt not in unhooked and pt.in_tri(self.pipe[-1], old_pos,
self.pos):
angle = candidate_key(pt)
if angle > swept_angle:
candidates.append((angle, pt))
if not hooked and len(self.pipe) > 1 and self.pipe[-1].in_tri(
self.pipe[-2], old_pos, self.pos):
unhook_angle = (self.pipe[-1] -
old_pos).angle_to(self.pipe[-2] -
self.pipe[-1])
else:
unhook_angle = None
if not candidates and unhook_angle is None:
break
if unhook_angle is not None and (not candidates or
unhook_angle < min(candidates)):
swept_angle = (self.pipe[-2] -
old_pos).angle_to(self.pipe[-2] - self.pipe[-1])
self.pinned_length -= (self.pipe[-2] - self.pipe[-1]).length
unhooked.append(self.pipe.pop())
else:
angle, pivot = min(candidates)
swept_angle = angle
self.pipe.append(pivot)
self.pinned_length += (self.pipe[-2] - self.pipe[-1]).length
hooked = True
pipe_vector = self.pos - self.pipe[-1]
if pipe_vector.length > self.pipe_length - self.pinned_length:
sf = (self.pipe_length - self.pinned_length) / pipe_vector.length
self.pos = (1 - sf) * self.pipe[-1] + self.pos * sf
self.pipe_used = min(pipe_vector.length + self.pinned_length,
self.pipe_length)
if self.firing and self.cooldown > SHOT_COOLDOWN:
self.cooldown = 0
p = self.weapon.make_projectile(self.world,
pos=self.pos,
bearing=self.bearing + 90)
p.apply_impulse(self.pos - self.old_pos)
self.world.new_active.add(p)
self.world.dispatch_event('on_shoot')
self.cooldown += 1
if not self.firing:
self.cooldown = SHOT_COOLDOWN
self.oxygen.contained -= 1
for c in self.colliders():
if isinstance(c, swag.Swag):
self.world.dispatch_event('on_get_swag', c)
if c.goal:
self.world.dispatch_event('on_finish_level')
c.dead = True
def get_position(self):
if self.body:
return self.body.get_position()
else:
return v(*self.sprite.position)
from line import Line as l
from plane import Plane as p
from linsys import LinearSystem as linSys
# Test for Lines
def checkLine(line1, line2):
if line1.is_equal(line2):
print "They are equal"
elif line1.is_parallel(line2):
print "They are parallel"
else:
print line1.intersection(line2)
a = l(v([4.046, 2.836]), 1.21)
b = l(v([10.115, 7.09]), 3.025)
checkLine(a, b)
c = l(v([7.204, 3.182]), 8.68)
d = l(v([8.172, 4.114]), 9.883)
checkLine(c, d)
e = l(v([1.182, 5.562]), 6.744)
f = l(v([1.773, 8.343]), 9.525)
checkLine(e, f)
# Test for ps
def checkp(p1, p2):
if p1.is_equal(p2):
def step(self):
dt = self.clock.tick() / 1000
for event in pygame.event.get():
if event.type == pygame.MOUSEMOTION:
if self.grabbed:
self.yaw += event.rel[0] / 100
self.pitch += -event.rel[1] / 100
# caps it to a quarter turn up or down
self.pitch = min(max(self.pitch, -math.pi / 2),
math.pi / 2)
elif event.type == pygame.KEYDOWN:
if event.key == pygame.K_TAB:
self.grabbed = not self.grabbed
pygame.event.set_grab(self.grabbed)
pygame.mouse.set_visible(not self.grabbed)
elif event.key == pygame.K_q:
sys.exit()
elif event.type == pygame.QUIT:
sys.exit()
elif event.type == pygame.VIDEORESIZE:
self.display = pygame.display.set_mode(event.size,
self.display_flags)
glViewport(0, 0, self.display.get_width(),
self.display.get_height())
rot_matrix = euler_matrix(self.yaw, self.pitch, 0)
forward = rotate_vec(v(1, 0, 0), rot_matrix)
left = rotate_vec(v(0, 1, 0), rot_matrix)
local_up = rotate_vec(v(0, 0, 1), rot_matrix)
keys = pygame.key.get_pressed()
speed = 50 if keys[pygame.K_LSHIFT] else 5
speed *= (.1 if keys[pygame.K_LCTRL] else 1)
if keys[pygame.K_w]: self.pos += forward * dt * speed
if keys[pygame.K_s]: self.pos += -forward * dt * speed
if keys[pygame.K_a]: self.pos += left * dt * speed
if keys[pygame.K_d]: self.pos += -left * dt * speed
if keys[pygame.K_SPACE]: self.pos += v(0, 0, 1) * dt * speed
if keys[pygame.K_c]: self.pos += v(0, 0, -1) * dt * speed
glMatrixMode(GL_PROJECTION)
glLoadIdentity()
perspective(self.fovy,
self.display.get_width() / self.display.get_height(), 0.1)
glMatrixMode(GL_MODELVIEW)
glLoadIdentity()
# rotates into the FLU coordinate system
glMultMatrixf([[0., 0., -1., 0.], [-1., 0., 0., 0.], [0., 1., 0., 0.],
[0., 0., 0., 1.]])
# after that, +x is forward, +y is left, and +z is up
glMultMatrixf(rot_matrix.T)
glTranslate(*-self.pos)
pos = self.pos
self.world.draw()
glDisable(GL_LIGHTING)
glDisable(GL_DEPTH_TEST)
with GLMatrix:
glTranslate(*self.pos + forward + left - local_up)
glBegin(GL_LINES)
for i in xrange(3):
glColor3f(*(j == i for j in xrange(3)))
glVertex3f(0, 0, 0)
glVertex3f(*(.1 * (j == i) for j in xrange(3)))
glEnd()
glEnable(GL_DEPTH_TEST)
glEnable(GL_LIGHTING)
pygame.display.flip()
def somewhere(self):
return v((distribute_outwards(random.random()) * self.w,
distribute_outwards(random.random()) * self.h))
def accelerate(self):
self.apply_impulse(v((self.thrust,0)).rotated(self.bearing))
def tick(self):
# objects by default continue to move in a straight line (see Newton)
delta = self.pos - self.old_pos
self.old_pos = self.pos
dtheta = self.bearing - self.old_bearing
self.old_bearing = self.bearing
self.bearing += dtheta * ANGULAR_DRAG
real_old_pos = self.old_pos
# add drag forces to delta
drag = delta * -delta.length * self.radius * self.world.drag
delta += drag
# add other accumulated forces to delta
delta += self.impulse
self.impulse = v((0, 0))
if not self.collides:
self.pos += delta
else:
steps = 1 + int(1.05 * delta.length / self.radius)
sub_delta = delta / steps
for ii in xrange(steps):
self.pos += sub_delta
original_pos = self.pos
check_collisions = True
tries = 0
while check_collisions:
check_collisions = False
tries += 1
if tries > 200:
# this is a problem, so rather than take the game down, we do something which just
# looks bad
self.pos = original_pos
return
for wall in self.world.static.overlaps(self):
cp = wall.closest_point(self.pos)
approach = (self.pos - cp)
if approach.length < self.radius - EPSILON:
self.pos = cp + approach.normalised() * self.radius
check_collisions = True
# now, the actor is definitely in a safe place
# work backwards to work out its eventual reflection and update old_pos to make it bounce
displacement = self.pos - original_pos
if displacement.length > 0:
mirror_point = original_pos + displacement * 0.5
mirror_line = Line(
displacement.normalised(),
mirror_point * displacement.normalised())
self.old_pos = mirror_line.reflect(self.old_pos)
sub_delta = mirror_line.parallel_through_origin.reflect(
sub_delta)
self.old_pos = self.pos + (self.old_pos -
self.pos) * ELASTICITY
def good_creature_arrival_location(self):
return v((self.game.w * (0.2 + 0.6*random.random()), -200))
def initial_setup(self):
self.game.add_plant_at(plant.Orange, v((80, self.game.h/2)), True)
self.game.add_plant_at(plant.Orange, v((self.game.w - 80, self.game.h/2)), True)
def inv_camera_transform(self, screen_loc):
return (v(screen_loc) - (self.window.width * 0.5, self.window.height * 0.2)).rotated(self.camera_bearing) / (self.camera_scale * self.camera_zoom) + self.camera_pos
def on_mouse_release(self, x, y, buttons, mods):
self.g.plants.add(Plant(v((x, y))))
def hit(self, victim):
self.dead = True
# check this next line - I think crazy stuff might happen if a projectile hits an enemy just
# after it's bounced off a wall
victim.apply_impulse(v((self.force, 0)).rotated(self.bearing))
victim.stun(STUN_FRAMES)
def initial_setup(self):
self.game.add_plant_at(plant.Rose, self.game.map_centre + v((-150, 0)), True)
self.game.add_plant_at(plant.Rose, self.game.map_centre + v((150, 0)), True)
self.game.add_creature_at(creatures.Ladybird, self.game.map_centre)
