def __init__(self, color: Vector, strength: float, position: Point3D,
direction: Point3D, fov: float, isCircular: bool):
Light.__init__(self, color, strength)
self.position = position
self.direction = direction
self.fov = fov
self.isCircular = isCircular
class Scene:
def __init__(self):
self.ground = Ground()
self.chimney = ChimneyFactory().createRandomChimney()
self.light = Light()
self.camera = Camera()
def generate_scene(self):
self.ground.draw()
self.chimney.draw()
self.light.draw()
def color_all(self):
mat = MaterialFactory().create_random_color()
chimney = self.chimney.get_object()
mat.add_to_object(chimney)
def prepare_camera(self):
self.camera.place()
self.camera.update()
self.camera.setup_format()
def render(self, filePath):
self.camera.prepare_render(filePath)
self.camera.render()
def clear(self):
bpy.ops.object.select_all(action="SELECT")
bpy.ops.object.delete(use_global=False)
for block in bpy.data.meshes:
if block.users == 0:
bpy.data.meshes.remove(block)
for block in bpy.data.materials:
if block.users == 0:
bpy.data.materials.remove(block)
for block in bpy.data.textures:
if block.users == 0:
bpy.data.textures.remove(block)
for block in bpy.data.images:
if block.users == 0:
bpy.data.images.remove(block)
for block in bpy.data.cameras:
if block.users == 0:
bpy.data.cameras.remove(block)
def get_annotation_chimney(self):
scene = bpy.context.scene
camera = bpy.data.objects["Camera"]
box = self.chimney.get_box()
result = get_annot_chimney(scene, camera, box)
return result
def annotate(self):
points_cheminee = self.get_annotation_chimney()
return ({"points": points_cheminee, "label": "cheminee", "difficult": 0},)
def __init__(self):
""" Creates a new point light. Remember to set a position
and a radius """
Light.__init__(self)
DebugObject.__init__(self, "PointLight")
self.spacing = 0.5
self.bufferRadius = 0.0
self.typeName = "PointLight"
def __init__(self):
""" Creates a new point light. Remember to set a position
and a radius """
Light.__init__(self)
DebugObject.__init__(self, "PointLight")
self.spacing = 0.5
self.bufferRadius = 0.0
self.typeName = "PointLight"
def __init__(self):
Light.__init__(self)
DebugObject.__init__(self, "DirectionalLight")
self._spacing = 0.6
self.radius = 99999999999.0
self.position = Vec3(0)
self.bounds = OmniBoundingVolume()
def __init__(self):
""" Constructs a new directional light. You have to set a
direction for this light to work properly"""
Light.__init__(self)
DebugObject.__init__(self, "DirectionalLight")
self.typeName = "DirectionalLight"
# A directional light is always visible
self.bounds = OmniBoundingVolume()
def __init__(self, lightName, lightNum,
ambient = Light.ambientDefault,
diffuse = Light.diffuseDefault,
specular = Light.specularDefault,
direction = directionDefault):
Light.__init__(self, lightName, lightNum, ambient, diffuse, specular)
self.__direction = Vec3d(direction[0], direction[1], direction[2], 0.0)
def __init__(self):
""" Constructs a new directional light. You have to set a
direction for this light to work properly"""
Light.__init__(self)
DebugObject.__init__(self, "GIHelperLight")
self.typeName = "GIHelperLight"
self.targetLight = None
self.filmSize = 50
self.bounds = OmniBoundingVolume()
def loadColorsAndLight(self):
self.rot = sm(np.array([200, 0, 0]), self.reflection)
self.gruen = sm(np.array([0, 200, 0]), self.reflection)
self.blau = sm(np.array([0, 0, 200]), self.reflection)
self.gelb = sm(np.array([200, 200, 0]))
self.grey2 = sm(np.array([100, 100, 100]), self.reflection)
self.grey = cm(np.array([200, 200, 200]), np.array([0, 0, 0]))
self.background_color = np.array([0, 0, 0])
self.licht = Light(np.array([-30, 30, 10]), np.array([255, 255, 255]))
class HardwareAPI(Thread):
isRunning = True
powerLight = Light(3, 'Power')
wifiLight = Light(5, 'Wifi')
networkLight = Light(7, 'Network')
resetButton = Button(11, 'Reset')
volumeButton = Button(13, 'Volume')
alarmButton = Button(15, 'Alarm')
intercomButton = Button(19, 'Intercom')
threads.append(powerLight)
threads.append(wifiLight)
threads.append(networkLight)
threads.append(resetButton)
threads.append(volumeButton)
threads.append(alarmButton)
threads.append(intercomButton)
def __init__(self):
Thread.__init__(self)
# Start lights
self.powerLight.start()
self.wifiLight.start()
self.networkLight.start()
# Start buttons
self.resetButton.start()
self.volumeButton.start()
self.alarmButton.start()
self.intercomButton.start()
print('Hardware API Initialized!')
def kill(self):
self.isRunning = False
self.powerLight.kill()
self.wifiLight.kill()
self.networkLight.kill()
self.resetButton.kill()
self.volumeButton.kill()
self.alarmButton.kill()
self.intercomButton.kill()
def run(self):
try:
while self.isRunning:
None
finally:
print('Hardware API - Waiting for threads to finish')
for i, t in enumerate(threads):
t.join()
print('Hardware API - Thread {} Stopped'.format(i))
GPIO.cleanup()
print('Hardware API Finished')
def reflection2(self, surface=Surface(), light_in=Light()):
# second way to get reflection
# first to get meeting point
mp_t0 = self.get_mp_and_t0(surface, light_in)
# set the source and time
light_r = Light()
light_r.set_s(np.array([mp_t0[0], mp_t0[1], mp_t0[2]]))
light_r.set_t(np.arange(0, mp_t0[3] + mp_t0[3] / 10, mp_t0[3] / 10))
# get n vector , v_i
n = surface.get_n()
v_i = light_in.get_v()
# get v_i shadow on n vector
v_is = np.dot(-v_i, n) / sqrt(np.dot(n, n))
# get sin vector p
p = v_is + v_i
# get v_r
v_r = 2 * p - v_i
# set light_r._v
light_r.set_v(v_r)
return light_r
def __init__(self):
self.screen_size = (800, 800)
self.ballObject = Ball(400, 400, 0, 200) # x, y, z, r
self.ballObject.setMaterialToMetal()
self.LightObject = Light(400, 400, 400, 83) # x, y, z, power
self.Ia = 87
self.Ka = 0.39
self.fatt = 0.63
super().__init__()
if (len(sys.argv) > 1 and sys.argv[1] == "--debug"):
nSlider = QSlider(Qt.Horizontal, self)
nSlider.setGeometry(10, 10, 100, 10)
nSlider.valueChanged[int].connect(self.changeN)
self.labelN = QLabel("N=" + str(self.ballObject.n), self)
self.labelN.setGeometry(110, 10, 50, 10)
ksSlider = QSlider(Qt.Horizontal, self)
ksSlider.setGeometry(10, 20, 100, 10)
ksSlider.valueChanged[int].connect(self.changeKs)
self.labelKs = QLabel("Ks=" + str(self.ballObject.Ks), self)
self.labelKs.setGeometry(110, 20, 50, 10)
kdSlider = QSlider(Qt.Horizontal, self)
kdSlider.setGeometry(10, 30, 100, 10)
kdSlider.valueChanged[int].connect(self.changeKd)
self.labelKd = QLabel("Kd=" + str(self.ballObject.Kd), self)
self.labelKd.setGeometry(110, 30, 50, 10)
iaSlider = QSlider(Qt.Horizontal, self)
iaSlider.setGeometry(10, 160, 100, 10)
iaSlider.valueChanged[int].connect(self.changeIa)
self.labelIa = QLabel("Ia=" + str(self.Ia), self)
self.labelIa.setGeometry(110, 160, 50, 10)
kaSlider = QSlider(Qt.Horizontal, self)
kaSlider.setGeometry(10, 170, 100, 10)
kaSlider.valueChanged[int].connect(self.changeKa)
self.labelKa = QLabel("Ka=" + str(self.Ka), self)
self.labelKa.setGeometry(110, 170, 50, 10)
ipSlider = QSlider(Qt.Horizontal, self)
ipSlider.setGeometry(10, 180, 100, 10)
ipSlider.valueChanged[int].connect(self.changeIp)
self.labelIp = QLabel("Ip=" + str(self.LightObject.power), self)
self.labelIp.setGeometry(110, 180, 50, 10)
fattSlider = QSlider(Qt.Horizontal, self)
fattSlider.setGeometry(10, 190, 100, 10)
fattSlider.valueChanged[int].connect(self.changeFatt)
self.labelFatt = QLabel("fatt=" + str(self.fatt), self)
self.labelFatt.setGeometry(110, 190, 50, 10)
def transmisson2(self,
surface=Surface(),
light_in=Light(),
n1=1,
n2=1.3330):
# teacher's way
# in parameter will get error, when set n1, n2 to n_air and n_water, so directly use value
# return the transmisson light
# get n vector , v_i
n = surface.get_n()
v_i = light_in.get_v()
# set n1,n2 must judge the light way with n
if np.dot(n, v_i) < 0:
n1 = surface.get_n1()
n2 = surface.get_n2()
else:
n2 = surface.get_n1()
n1 = surface.get_n2()
n = -n
# get meeting point and time
mp_t0 = self.get_mp_and_t0(surface, light_in)
# set the source and time
light_t = Light()
light_t.set_s(np.array([mp_t0[0], mp_t0[1], mp_t0[2]]))
light_t.set_t(np.arange(0, mp_t0[3] + mp_t0[3] / 10, mp_t0[3] / 10))
# sin（theta1),sin(theta2),cos(theta1),cos(theta2)
cos1 = np.dot(-v_i, n) / sqrt(np.dot(v_i, v_i) * np.dot(n, n))
sin1 = sqrt(1 - cos1**2)
sin2 = n1 * sin1 / n2
cos2 = sqrt(1 - sin2**2)
# calculate brust angle
sin2_b = 1
sin1_b = n2 * sin2_b / n1
# check special case, n vector is equal with -v_i, directly trans
if (np.cross(n, -v_i) == [0, 0, 0]).all():
v_t = v_i
else:
# check brust case
if (n1 >= n2) & (sin1 >= sin1_b):
v_t = np.array([0, 0, 0])
# normal case
else:
v_tx = np.cross(np.cross(n, v_i), n) * n1 / n2
v_ty = -sqrt(np.dot(v_i, v_i) - np.dot(v_tx, v_tx)) * n
v_t = v_tx + v_ty
light_t.set_v(np.array([v_t[0], v_t[1], v_t[2]]))
return light_t
def handle(self):
data = self.request.recv(1024).decode("UTF-8").strip('\r\n') # Get the data from the client and immediatly strip off \r\n chars and make a String out of it!
if(len(data) > 1):
try:
lightName = Light(data.rsplit('get light ')[1])
self.request.send(bytes(lightName.getStatus().encode("UTF-8")))
logging.append("request for " + data + " from client " + self.client_address[0])
except ValueError:
logging.append("ERROR! light " + data.rsplit('get light ')[1] + " doesn't exist!")
self.request.send(b"false")
else :
self.request.send(b"false")
def __init__(self):
""" Constructs a new directional light. You have to set a
direction for this light to work properly"""
Light.__init__(self)
DebugObject.__init__(self, "DirectionalLight")
self.typeName = "DirectionalLight"
self.splitCount = 4
self.pssmTargetCam = None
self.pssmTargetLens = None
self.pssmFarPlane = 100.0
self.pssmSplitPow = 2.0
self.updateIndex = 0
# A directional light is always visible
self.bounds = OmniBoundingVolume()
def run_plot(self,
list_surface=[Surface()],
light_in=Light(),
i=1,
size=2):
# i is the times to t and r, size is the large of surface
list_tree_surface = self.lightrun(list_surface, light_in, i)
tree_light = list_tree_surface[0]
list_surface = list_tree_surface[1]
fig = plt.Figure()
ax = plt.axes(projection='3d')
# get all light to plot
list_light = tree_light.level_queue(tree_light.root)
# plot light and surface
for light in list_light:
light.plot(fig, ax)
for surface in list_surface:
x_p = surface.get_p()[0]
y_p = surface.get_p()[1]
surface.plot(fig,
ax,
x=np.arange(-size + x_p, size + x_p, size / 5),
y=np.arange(-size + y_p, size + y_p, size / 5))
plt.show()
def test():
w = Window(2)
d = Door(2.0)
l = Light(95)
r = Rad(3000)
r = Room("Living room", 12, 15, 10, 10.5, r, d, l, w)
print(r.get_length())
print(r.get_width())
print(r.get_height())
print(r.getSqrFt())
print(r.get_area())
r.set_length(9)
r.set_width(15)
r.set_height(12)
print(r.get_length())
print(r.get_width())
print(r.get_height())
print(r.getSqrFt())
print(r.get_area())
r.change_temp(-1)
print(r.get_temp())
print(r)
def popup_dismissed(self, _id, hexcolor, rgbcolor, buttoninstance):
buttoninstance.background_color = rgbcolor
xy = self.convert_hex_to_xy(hexcolor)
x = round(xy[0], 4)
y = round(xy[1], 4)
xy = [x, y]
Light.ChangeColor(self, _id, xy)
def get_mp_and_t0(self, surface=Surface(), light=Light()):
# mp is meetingpoint , t0 is the meeting time
mp_t0 = np.array([0, 0, 0, 0])
# get n,v_i,s
n = surface.get_n()
v_i = light.get_v()
s = light.get_s()
# for the case light and surface parallel, n*v' =0, and source is on surface, (s-p)*n'=0
# let the point and time be 100
if np.dot(n, v_i) == 0:
t0 = 0
mp_t0 = [0, 0, 0, 0]
# source on surface
else:
if np.dot((s - surface.get_p()), n) == 0:
mp_t0 = [s[0], s[1], s[2], 0]
else:
x, y, z, t0 = symbols('x y z t0')
light_in_t0 = light.get_light_in_t0(t0)
# get surface eqn for 1
eq1 = surface.get_eqn(x, y, z)
# eqn2 for x
eq2 = Eq(x, light_in_t0[0])
eq3 = Eq(y, light_in_t0[1])
eq4 = Eq(z, light_in_t0[2])
sol = linsolve([eq1, eq2, eq3, eq4], [x, y, z, t0])
mp_t0 = next(iter(sol))
return mp_t0
def test4():
''' Normal case, one time reflection and one time transmisson , light in air through the air.
data : light source [-1 0 1], light vector [1 0 -1], surface is xoy,n1=1 n2=1
esay to hand calculate
light_r.s = [0,0,0] light_r.vector = [1,0,1]
light_t.s = [0,0,0] lgiht_t.vector = [1,0,-1]
'''
light_i = Light(np.array([-1, 0, 1]), np.array([1, 0, -1]))
surface = Surface()
list_surface = [surface]
phy = Physical()
list_tree_surface = phy.lightrun(list_surface, light_i, 1)
tree_light = list_tree_surface[0]
list_surface = list_tree_surface[1]
list_light = tree_light.level_queue(tree_light.root)
light_r = list_light[2]
light_t = list_light[1]
b1 = (light_r.get_s() == np.array([0, 0, 0])).all()
b2 = (light_r.get_v() == np.array([1, 0, 1])).all()
b3 = (light_t.get_s() == np.array([0, 0, 0])).all()
b4 = (light_t.get_v() == np.array([1, 0, -1])).all()
assert b1 & b2 & b3 & b4
def loadScripts(self, dir):
import sys
sys.path.insert(0, "./scripts")
from Script import Script
s = Script(self, "test")
from loading import Loading
l = Loading(self.segments[0])
self.scripts.append(l)
from TheaterChase import TheaterChase
t = TheaterChase(self.segments[0])
self.scripts.append(t)
from rainbow import Rainbow
r = Rainbow(self.segments[0])
self.scripts.append(r)
from LeftToRightRandom import LeftToRightRandom
lr = LeftToRightRandom(self.segments[0])
self.scripts.append(lr)
from RandomLed import RandomLed
r = RandomLed(self.segments[0])
self.scripts.append(r)
from Light import Light
self.scripts.append(Light(self.segments[0]))
from Test import Test
self.scripts.append(Test(self.segments[0]))
from Cycle import Cycle
self.scripts.append(Cycle(self.segments[0]))
from SingleColor import SingleColor
self.scripts.append(SingleColor(self.segments[0]))
def __init__(self, lightName, lightNum,
ambient = Light.ambientDefault,
diffuse = Light.diffuseDefault,
specular = Light.specularDefault,
position = positionDefault,
atConstant = constantAttenuationDefault,
atLinear = linearAttenuationDefault,
atQuadratic = quadraticAttnuationDefault):
Light.__init__(self, lightName, lightNum, ambient, diffuse, specular)
self.__position = Vec3d(position[0], position[1], position[2], 1)
self.__atConstant = atConstant
self.__atLinear = atLinear
self.__atQuadratic = atQuadratic
def get_lights(self):
lights = []
response = requests.get(self.url + '/lights')
if (self.success(response)):
for num, info in response.json().items():
state = info['state']
light = Light(num, state)
lights.append(light)
return lights
def run5():
surface = Surface(np.array([0, 1, 0]), np.array([0, 0, 1]),
Surface().get_n_air(),
Surface().get_n_water())
list_surface = [surface]
# light
light_i = Light(np.array([0, 1, 0]), np.array([0, 0, 0]))
# run
Physical().run_plot(list_surface, light_i, 1, 10)
def handle(self):
data = self.request.recv(1024).decode("UTF-8").strip(
'\r\n'
) # Get the data from the client and immediatly strip off \r\n chars and make a String out of it!
if (len(data) > 1):
try:
lightName = Light(data.rsplit('get light ')[1])
self.request.send(bytes(lightName.getStatus().encode("UTF-8")))
logging.append("request for " + data + " from client " +
self.client_address[0])
except ValueError:
logging.append("ERROR! light " + data.rsplit('get light ')[1] +
" doesn't exist!")
self.request.send(b"false")
else:
self.request.send(b"false")
def run8():
surface1 = Surface(np.array([0, 0, 0]), np.array([1, 0, 0]))
surface2 = Surface(np.array([0, 0, 0]), np.array([0, 0, 1]))
surface3 = Surface(np.array([3, 0, 0]), np.array([1, 0, 0]))
list_surface = [surface1, surface2, surface3]
light_i = Light(np.array([0, 0, 1]), np.array([1, 0, -1]))
Physical().run_plot(list_surface, light_i, 3, 6)
def run7():
surface1 = Surface(np.array([0, 0, 0]), np.array([0, 0, 1]),
Surface().get_n_air(),
Surface().get_n_water())
list_surface = [surface1]
light_i = Light(np.array([0, 0, 1]), np.array([0.1, 0.1, -1]))
Physical().run_plot(list_surface, light_i)
def run1():
# light
light_i = Light(np.array([-3, 5, 3]), np.array([1, 0, 0]))
# surface
surface = Surface(np.array([0, 1, 0]), np.array([0, 0, 1]),
Surface().get_n_air(),
Surface().get_n_water())
list_surface = [surface]
# run
Physical().run_plot(list_surface, light_i, 1, 5)
def __init__(self):
""" Creates a new spot light. """
Light.__init__(self)
DebugObject.__init__(self, "SpotLight")
self.typeName = "SpotLight"
self.nearPlane = 0.5
self.radius = 30.0
self.spotSize = Vec2(30, 30)
# Used to compute the MVP
self.ghostCamera = Camera("PointLight")
self.ghostCamera.setActive(False)
self.ghostLens = PerspectiveLens()
self.ghostLens.setFov(130)
self.ghostCamera.setLens(self.ghostLens)
self.ghostCameraNode = NodePath(self.ghostCamera)
self.ghostCameraNode.reparentTo(Globals.render)
self.ghostCameraNode.hide()
def lightrun(self, list_surface=[Surface()], light_in=Light(), i_t=1):
# i_t is reflection times and trans times
# this function will simulate the ray, and return a tree and list_surface
tree_light = Tree()
tree_light.add(light_in)
# this will be a for command for i_t
for i in range(i_t):
# calcute for list_surface
# get myQueue length
q_length = len(tree_light.myQueue)
# run over myQueue,to add new light in tree, but we build a new list, queue is dynamic
# select light
list_light_temp = []
for index in range(q_length):
light_temp = tree_light.myQueue[index].elem
list_light_temp.append(light_temp)
for light_temp in list_light_temp:
if light_temp == None:
# no light to reflect
tree_light.add(None)
tree_light.add(None)
else:
# get p,t,surface
list_mpts = self.get_mp_t0_and_surface(
list_surface, light_temp)
mp_t0 = list_mpts[0]
surface_m = list_mpts[1]
# judge if surface is None
if surface_m == None:
# no reflect and transmisson
tree_light.add(None)
tree_light.add(None)
else:
# set the current light_in time
# find light_temp index in tree, through it's dynamic, bud no influence, cause if light_temp is finish , we dont need that
for i in range(len(tree_light.myQueue)):
if tree_light.myQueue[i].elem == light_temp:
index = i
tree_light.myQueue[index].elem.set_t(
np.arange(0, mp_t0[3] + mp_t0[3] / 10,
mp_t0[3] / 10))
# set the point in surface is meeting point to save the value to plot
list_surface_index = list_surface.index(surface_m)
# mp = [mp_t0[0], mp_t0[1], mp_t0[2]]
# list_surface[list_surface_index].set_p(np.array(mp))
# calcute trans and ref
light_t_temp = self.transmisson2(surface_m, light_temp)
light_r_temp = self.reflection(surface_m, light_temp)
# add to tree
tree_light.add(light_t_temp)
tree_light.add(light_r_temp)
return [tree_light, list_surface]
def __init__(self, file_name):
global active_camera
self.models = None
self.cameras = None
self.lights = None
self.active_camera = active_camera
# shared resources
self.textures = {} # name -> tex lookup
self.shaders = {} # name -> tex lookup
self.meshes = {} # name -> tex lookup
with open(file_name, "r") as fp:
data = json.load(fp)
# models
self.models = {name: Model(m) for (name, m) in data["models"].items()}
for model in self.models.values():
vert_file = model.io['shader']['vert']
frag_file = model.io['shader']['frag']
shader_name = vert_file.split('.')[0]
shader = ResourceManager.get_shader(shader_name)
if not shader:
shader = Shader(vert_file, frag_file)
ResourceManager.add_shader(shader_name, shader)
model.shader = shader
mesh_name = model.io['mesh'] # contains relative path string
mesh = ResourceManager.get_mesh(mesh_name)
if not mesh:
mesh = Mesh(mesh_name)
ResourceManager.add_mesh(mesh_name, mesh)
model.mesh = mesh
tex_files = model.io['textures']
for (layer, tex_file) in tex_files.items():
tex = ResourceManager.get_texture(tex_file)
if not tex:
tex = Texture(tex_file)
ResourceManager.add_texture(tex_file, tex)
model.textures[layer] = tex
# cameras, set first camera to active
self.cameras = {
name: Camera(c)
for (name, c) in data["cameras"].items()
}
if len(self.cameras) > 0:
# get first items value
active_camera = next(iter(self.cameras.items()))[1]
logging.warn('camera needs to set shader uniforms')
# lights
self.lights = {name: Light(l) for (name, l) in data["lights"].items()}
logging.warn('light needs to set shader uniforms')
def __init__(self):
""" Constructs a new directional light. """
Light.__init__(self)
DebugObject.__init__(self, "DirectionalLight")
self.typeName = "DirectionalLight"
# If you change the split count, change DIRECTIONAL_LIGHT_SPLIT_COUNTS
# in Shader/Includes/Configuration.include aswell! This is hardcoded
# to improve performance
self.splitCount = 6
self.pssmTargetCam = Globals.base.cam
self.pssmTargetLens = Globals.base.camLens
self.pssmFarPlane = 150
self.pssmSplitPow = 2.0
self.sunDistance = 7000
self.updateIndex = 0
# A directional light is always visible
self.bounds = OmniBoundingVolume()
def __init__(self):
""" Constructs a new directional light. You have to set a
direction for this light to work properly"""
Light.__init__(self)
DebugObject.__init__(self, "DirectionalLight")
self.typeName = "DirectionalLight"
# If you change the split count, change DIRECTIONAL_LIGHT_SPLIT_COUNTS
# in Shader/Includes/Configuration.include aswell! This is hardcoded
# to improve performance
self.splitCount = 5
self.pssmTargetCam = Globals.base.cam
self.pssmTargetLens = Globals.base.camLens
self.pssmFarPlane = 150.0
self.pssmSplitPow = 2.0
self.updateIndex = 0
# A directional light is always visible
self.bounds = OmniBoundingVolume()
def __init__(self) :
# Create a controller for leap
self.controller = Leap.Controller()
# From classes
self.model = Model3D()
self.camera = Camera()
self.light = Light()
# Common variables
self.rotate = 0.0
def update(self, lightName, status):
light = Light(lightName)
light.set_status(status)
return "Het gaat om lamp " + lightName + " en zijn nieuwe status is " + status
from Input import Input from Light import Light light = Light(4) light.status() light.turnOn() light.turnOff()
def setPos(self, pos):
""" Sets the position of the spotlight """
self.ghostCameraNode.setPos(pos)
Light.setPos(self, pos)
def cleanup(self):
""" Internal method which gets called when the light got deleted """
self.ghostCameraNode.removeNode()
Light.cleanup(self)
def index(self, lightname, status):
light = Light(lightname)
light.set_status(status)
