def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
# Grab the raw audio buffers
newbuffer = audio_engine.mono_buffer()
# Make sure they aren't empty!!
if (len(newbuffer) == 0):
return
else:
self.mono = newbuffer
# Openlase can only draw 30000 points in one cycle (less that
# that, actually!). Clear the audio buffer and try again!
if self.mono.shape[0] > 10000:
audio_engine.clear_all()
ol.loadIdentity3()
ol.color3(*(self.color_cycle()))
ol.begin(ol.POINTS)
for i in range(0, self.mono.shape[0]-1, self.SUBSAMP):
val = tanh(self.mono[i] * self.BOOST)
val = val * 0.5 + 0.5
val = val * (self.MAX_SIZE - self.MIN_SIZE) + self.MIN_SIZE
ol.vertex3((cos(self.pos) * val, sin(self.pos) * val, -1))
self.pos = self.pos + self.W / 30000.0;
while(self.pos >= 2*pi):
self.pos = self.pos -2*pi
ol.end()
def draw(self, target):
x, y = target[0] - self.x, target[1] - self.y
# point each segment to it's predecessor
for segment in self.segments:
dx = x - segment.x
dy = y - segment.y
angle = math.atan2(dy, dx)
segment.angle = angle
x = x - math.cos(angle) * arm_length / parts
y = y - math.sin(angle) * arm_length / parts
# and now move the pointed nodes, starting from the last one
# (that is the beginning of the arm)
for prev, segment in reversed(list(zip(self.segments, self.segments[1:]))):
prev.x = segment.x + math.cos(segment.angle) * arm_length / parts
prev.y = segment.y + math.sin(segment.angle) * arm_length / parts
segment.prev_x = prev.x
segment.prev_y = prev.y
ol.translate3((self.x, self.y, 0))
ol.begin(ol.LINESTRIP)
for segment in self.segments:
segment.draw(self.color)
ol.end()
def draw(self):
"""
Draw the bullet shape
"""
#print ("drawing bullet")
pts = []
pts.append({'x': 0, 'y': 0})
pts.append({'x': self.length*math.cos(self.shotAngle),
'y': self.length*math.sin(self.shotAngle)})
"""
# Rotate points
for p in pts:
x = p['x']
y = p['y']
p['x'] = x*math.cos(self.theta) - y*math.sin(self.theta)
p['y'] = y*math.cos(self.theta) + x*math.sin(self.theta)
"""
# Translate points
for pt in pts:
pt['x'] += self.x
pt['y'] += self.y
ol.begin(ol.LINESTRIP)
for i in range(len(pts)):
ol.vertex((pts[i]['x'], pts[i]['y']), ol.C_WHITE)
ol.end()
self.drawn = True
def draw(self, target=None):
for particle in reversed(self.tail):
# draw connecting lines
if particle.follow:
new_x, new_y = particle.follow.x, particle.follow.y
if draw_links:
ol.color3(1, 0, 1) # magenta links
ol.loadIdentity3()
ol.loadIdentity()
ol.begin(ol.LINESTRIP)
ol.vertex3((particle.x, particle.y, 0))
ol.vertex3((particle.follow.x, particle.follow.y, 0))
ol.end()
else:
if target: new_x, new_y = target[0], target[1]
else:
new_x, new_y = math.cos(3 * lux.time), math.sin(2 *
lux.time)
#new_x, new_y = self.mouse_x, self.mouse_y
particle.draw('blah')
if abs(particle.x - new_x) > 0.01 or abs(particle.y -
new_y) > 0.01:
self.tweener.add_tween(particle, x=new_x, y=new_y, duration=0.6, \
easing=pytweener.Easing.Cubic.ease_out, on_complete=particle.finish, on_update=particle.draw)
def run(self): while self.trace is None and not self.die: time.sleep(0.1) if self.die: return if ol.init(4) < 0: return print "OL Initialized" params = ol.RenderParams() params.render_flags = ol.RENDER_GRAYSCALE params.on_speed = 2/120.0 params.off_speed = 2/30.0 params.flatness = 0.000001 params.max_framelen = 48000 / 25 params.min_length = 30 params.snap = 0.04 ol.setRenderParams(params) ol.loadIdentity() ol.scale((2, -2)) ol.translate((-0.5, -0.5)) ol.scale((1/640.0, 1/640.0)) ol.translate((0, (640-480)/2)) while not self.die: #ol.rect((100, 100), (640-100, 480-100), ol.C_WHITE) objects = self.trace for o in objects: ol.begin(ol.POINTS) for point in o[::2]: ol.vertex(point, ol.C_WHITE) ol.end() ftime = ol.renderFrame(60) ol.shutdown()
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
# Grab the raw audio buffers
mono = audio_engine.left_buffer()
# mono = np.zeros(512)
# Make sure they aren't empty!!
if (mono.shape[0] == 0):
return
# Openlase can only draw 30000 points in one cycle (less that
# that, actually!). Clear the audio buffer and try again!
if mono.shape[0] > 10000:
audio_engine.clear_all()
return
ol.loadIdentity3()
ol.color3(*(self.color_cycle()))
ol.begin(ol.LINESTRIP)
for i in range(0, mono.shape[0]-1, self.subsamp):
scale_factor = pow(0.9-abs(self.x_coord),0.5)*2
if (mono[i] <= -1.0):
mono[i] = 1.0
ol.vertex3((self.x_coord, tanh(mono[i]*scale_factor), -1))
# ol.vertex3((self.x_coord, log(mono[i]*scale_factor+1.0), -1))
self.x_coord = self.x_coord + self.step
if (self.x_coord > 0.9) : self.x_coord = -0.9
ol.end()
def draw(self):
self.x_phase = 0.4*cos(1.7 * lux.time * self.RATE) + 0.6*cos(0.7 * lux.time * self.RATE)
self.y_phase = cos(2.2 * lux.time * self.RATE)
self.z_phase = cos(5.7 * lux.time * self.RATE)
self.z_ratio = 2 + cos(0.1 * lux.time * self.RATE)
ol.loadIdentity3()
ol.loadIdentity()
ol.perspective(20, 1, 1, 100)
ol.translate3((0, 0, -10))
ol.scale3((0.5, 0.5, 0.5))
ol.rotate3Z(lux.time * pi * 0.01)
ol.rotate3X(lux.time * pi * 0.025)
ol.rotate3Y(lux.time * pi * 0.013)
ol.color3(*(self.color_cycle()))
ol.begin(ol.POINTS)
decay_factor = 1
first_point = None
for i in range(self.SAMPLES_PER_FRAME):
theta = float(i) / self.SAMPLES_PER_FRAME * self.MAX_THETA
x = sin(self.x_ratio * theta + self.x_phase)
y = sin(self.y_ratio * theta + self.y_phase)
z = sin(self.z_ratio * theta + self.z_phase)
if (i == 0):
first_point = (x * decay_factor, y * decay_factor, z * decay_factor)
ol.vertex3((x * decay_factor, y * decay_factor, z * decay_factor))
decay_factor = decay_factor * self.decay
ol.vertex3(first_point)
ol.end()
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
ol.loadIdentity3()
ol.perspective(20, 1, 1, 100)
ol.translate3((0, 0, -20))
ol.color3(1.0,1.0,0.0);
ol.translate3( (cos(lux.time/2.0), cos(lux.time/3.0), cos(lux.time/7.0)) )
ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.25 * lux.simple_rate)
ol.rotate3Y(lux.time * pi * 0.13 * lux.simple_rate)
for row in self.torender:
ol.begin(ol.LINESTRIP)
vi = self.faces[row]
vi = vi + [vi[0]]
for i in vi:
tup = tuple(self.verts[i,:])
ol.vertex3(tup)
ol.end()
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
ol.loadIdentity3()
ol.perspective(20, 1, 1, 100)
ol.translate3((0, 0, -20))
ol.color3(1.0, 1.0, 0.0)
ol.translate3(
(cos(lux.time / 2.0), cos(lux.time / 3.0), cos(lux.time / 7.0)))
ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.25 * lux.simple_rate)
ol.rotate3Y(lux.time * pi * 0.13 * lux.simple_rate)
for row in self.torender:
ol.begin(ol.LINESTRIP)
vi = self.faces[row]
vi = vi + [vi[0]]
for i in vi:
tup = tuple(self.verts[i, :])
ol.vertex3(tup)
ol.end()
def square(self,x1,y1,x2,y2):
ol.begin(ol.LINESTRIP)
ol.vertex((x1,y1))
ol.vertex((x1,y2))
ol.vertex((x2,y2))
ol.vertex((x2,y1))
ol.vertex((x1,y1))
ol.end()
def draw(self):
time = lux.time
#time = self.time
ctf = self.color_time_frequency
clf = self.color_length_frequency
caf = self.color_angle_frequency/2
theta = abs(math.sin(time*self.time_scale))
R = self.R * math.sin(2*pi*time*self.time_scale*self.R_frequency)
r = self.r * math.sin(2*pi*time*self.time_scale*self.r_frequency)
p = self.p * math.sin(2*pi*time*self.time_scale*self.p_frequency) * self.bass
ol.color3(1.0, 0.0, 1.0);
ol.loadIdentity3()
ol.loadIdentity()
ol.perspective(60, 1, 1, 100)
ol.translate3((0, 0, -3))
first = True
n = 0
while theta < 2*pi*self.max_cycles and n < self.max_segments:
theta += self.theta_step
#x = (R + r) * math.cos(theta)
#y = (R + r) * math.sin(theta)
x = (R + r) * math.cos(theta) + (r + p) * math.cos((R+r)/r * theta)
y = (R + r) * math.sin(theta) + (r + p) * math.sin((R+r)/r * theta)
if first:
ol.begin(ol.LINESTRIP)
#ol.begin(ol.POINTS)
first = False
#red = math.sin(ctf*time*n/37) * math.sin(csf*theta*n/37)
#green = math.sin(ctf*time*n/23) * math.sin(csf*theta*n/23)
#blue = math.sin(ctf*time*n/128) * math.sin(csf*theta*n/128)
angle = math.atan2(y, x)/(2*pi)
red = abs(math.sin(2*pi*(self.r_prime/3+ctf*time+clf*n+caf*angle)))
green = abs(math.sin(2*pi*(self.g_prime/3+ctf*time+clf*n+caf*angle)))
blue = abs(math.sin(2*pi*(self.b_prime/3+ctf*time+clf*n+caf*angle)))
ol.color3(red, green, blue)
#this makes it square-ish
#x += math.cos(2*pi*angle*self.spatial_resonance)*self.spatial_resonance_amplitude
#y += math.sin(2*pi*angle*self.spatial_resonance)*self.spatial_resonance_amplitude
x += math.cos(2*pi*angle*(self.spatial_resonance+1)+2*pi*self.spatial_resonance_offset)*self.spatial_resonance_amplitude
y += math.sin(2*pi*angle*(self.spatial_resonance+1)+2*pi*self.spatial_resonance_offset)*self.spatial_resonance_amplitude
x *= self.width
y *= self.height
ol.vertex3((x,y,0))
n += 1
ol.end()
#dynamically adjust resolution
target = self.max_segments * 0.8
error = (target - n)/target
self.theta_step = min(max(1e-100, self.theta_step * (1-error)), 1)
#print n, angle
self.time += 1/30
def square(x1, y1, x2, y2):
ol.begin(ol.POINTS)
ol.vertex3((x1, y1, 0))
ol.vertex3((x1, y2, 0))
ol.vertex3((x2, y2, 0))
ol.vertex3((x2, y1, 0))
ol.vertex3((x1, y1, 0))
ol.end()
def square(posx, posy, size):
ol.begin(ol.POINTS)
# ol.begin(ol.LINESTRIP)
ol.vertex3((posx, posy, 0))
ol.vertex3((posx + size, posy, 0))
ol.vertex3((posx + size, posy + size, 0))
ol.vertex3((posx, posy + size, 0))
ol.vertex3((posx, posy, 0))
ol.end()
def square(x1,y1,x2,y2):
ol.begin(ol.POINTS)
ol.vertex3((x1,y1,0))
ol.vertex3((x1,y2,0))
ol.vertex3((x2,y2,0))
ol.vertex3((x2,y1,0))
ol.vertex3((x1,y1,0))
ol.end()
def play_ugo(size, frames, meta):
frame_pts = []
total_time = 0
for frame_meta in meta['frames']:
frame_pts.append(total_time)
total_time += frame_meta['delay'] / 1000.0
if ol.init(3) < 0:
return
width, height = size
params = ol.RenderParams()
params.render_flags = ol.RENDER_GRAYSCALE
params.on_speed = 2/60.0
params.off_speed = 2/30.0
params.flatness = 0.000001
params.max_framelen = 48000 / 25
params.min_length = 30
params.snap = 0.04
ol.setRenderParams(params)
ol.loadIdentity()
ol.scale((2, -2))
ol.translate((-0.5, -0.5))
mw = float(max(width, height))
print width, height, mw
ol.scale((1/mw, 1/mw))
ol.translate(((mw-width)/2, (mw-height)/2))
frame = 0
time = 0
DECIMATE = 2
while True:
while time > total_time:
time -= total_time
frame = 0
while (frame+1) < len(frames) and frame_pts[frame+1] < time:
frame += 1
print "t=%.02f frame=%d" % (time, frame)
objects = frames[frame]
points = 0
for o in objects:
ol.begin(ol.POINTS)
for point in o[::DECIMATE]:
ol.vertex(point, ol.C_WHITE)
points += 1
ol.end()
print "%d objects, %d points" % (len(objects), points)
time += ol.renderFrame(60)
ol.shutdown()
def draw(self):
ol.loadIdentity()
ol.rotate(lux.time / 10)
# Grab the raw audio buffer
mono = audio_engine.mono_buffer()
# Make sure it ain't empty!!
if mono.shape[0] == 0:
return
# Openlase can only draw 30000 points in one cycle (less that
# that, actually!). Clear the audio buffer and try again!
if mono.shape[0] > 10000:
audio_engine.clear_all()
ol.color3(*(self.color_cycle()))
ol.perspective(60, 1, 1, 100)
ol.translate3((0, 0, -3))
if (lux.time > self.nextSnapshot):
#print "snapshot"
self.nextSnapshot = lux.time + self.interval
self.currentWave = self.nextWave
self.nextWave = zeros(shape=(self.renderPointCount))
# load in new values
for i in range(int(self.renderPointCount - 1)):
self.nextWave[i] = mono[i * self.skip] * 2
# draw shape
fracIntervalComplete = (
lux.time - (self.nextSnapshot - self.interval)) / self.interval
# print '%f %f %f' % (lux.time,fracIntervalComplete, self.nextSnapshot)
coordsToRender = zeros(shape=(self.renderPointCount, 2))
firstVal = None
for i in range(int(self.renderPointCount - 1)):
val = ((self.nextWave[i] - self.currentWave[i]) *
fracIntervalComplete) + self.currentWave[i]
if (firstVal is None): firstVal = val
#print "next: %f curr: %f frac: %f" % (self.nextWave[i], self.currentWave[i], fracIntervalComplete)
(x, y) = self.doTheTrigStuff(
val, (float(i) / float(self.renderPointCount)), firstVal)
coordsToRender[i][0] = x
coordsToRender[i][1] = y
coordsToRender[self.renderPointCount - 1] = coordsToRender[0]
# render shape
ol.begin(ol.LINESTRIP)
for i in range(0, int(self.renderPointCount), 1):
# print '%f: %f,%f' % (i,coordsToRender[i][0], coordsToRender[i][1])
ol.vertex((coordsToRender[i][0], coordsToRender[i][1]))
ol.end()
ol.vertex((coordsToRender[0][0], coordsToRender[0][1]))
def draw(self):
ol.loadIdentity()
ol.rotate(lux.time / 10)
# Grab the raw audio buffer
mono = audio_engine.mono_buffer()
# Make sure it ain't empty!!
if mono.shape[0] == 0:
return
# Openlase can only draw 30000 points in one cycle (less that
# that, actually!). Clear the audio buffer and try again!
if mono.shape[0] > 10000:
audio_engine.clear_all()
return
ol.color3(*(self.color_cycle()))
ol.perspective(60, 1, 1, 100)
ol.translate3((0, 0, -3))
if lux.time > self.nextSnapshot:
# print "snapshot"
self.nextSnapshot = lux.time + self.interval
self.currentWave = self.nextWave
self.nextWave = zeros(shape=(self.renderPointCount))
# load in new values
for i in range(self.renderPointCount - 1):
self.nextWave[i] = mono[i * self.skip]
# draw shape
fracIntervalComplete = (lux.time - (self.nextSnapshot - self.interval)) / self.interval
# print '%f %f %f' % (lux.time,fracIntervalComplete, self.nextSnapshot)
coordsToRender = zeros(shape=(self.renderPointCount, 2))
firstVal = None
for i in range(self.renderPointCount - 1):
val = ((self.nextWave[i] - self.currentWave[i]) * fracIntervalComplete) + self.currentWave[i]
if firstVal is None:
firstVal = val
# print "next: %f curr: %f frac: %f" % (self.nextWave[i], self.currentWave[i], fracIntervalComplete)
(x, y) = self.doTheTrigStuff(val, (float(i) / float(self.renderPointCount)), firstVal)
coordsToRender[i][0] = x
coordsToRender[i][1] = y
coordsToRender[self.renderPointCount - 1] = coordsToRender[0]
# render shape
ol.begin(ol.LINESTRIP)
for i in range(self.renderPointCount):
# print '%f: %f,%f' % (i,coordsToRender[i][0], coordsToRender[i][1])
ol.vertex((coordsToRender[i][0], coordsToRender[i][1]))
ol.end()
def draw(self):
'''a square'''
#self.x = math.cos(2*pi*rotate_frequency*lux.time + self.angle + self.base_angle) * self.distance * self.distance_scale
#self.y = math.sin(2*pi*rotate_frequency*lux.time + self.angle + self.base_angle) * self.distance * self.distance_scale
#stolen from guilloche
time = lux.time * time_scale
R = math.sin(2*pi*self.R_frequency*time) * self.R + 0.0001
r = math.sin(2*pi*self.r_frequency*time) * self.r + 0.0001
p = math.sin(2*pi*self.p_frequency*time) * self.p + 0.0001
self.x = (R + r) * math.cos(time) + (r + p) * math.cos((R+r)/r * time)
self.y = (R + r) * math.sin(time) + (r + p) * math.sin((R+r)/r * time)
#clamp to display area
if clamp_display:
if self.x > 1: self.x = 1
if self.y > 1: self.y = 1
if self.x < -1: self.x = -1
if self.y < -1: self.y = -1
self.x *= scale
self.y *= scale
#self.graphics.circle(0, 0, self.radius)
ol.loadIdentity3()
ol.loadIdentity()
#ol.color3(self.color[0], self.color[1], self.color[2])
ol.color3(self.red, self.green, self.blue)
ol.translate3((self.x, self.y, 0))
angle = math.atan2(self.y, self.x)/(2*pi)
red = abs(math.sin(2*pi*(r_prime/3+ctf*time+clf*self.n+caf*angle)))*self.red
green = abs(math.sin(2*pi*(g_prime/3+ctf*time+clf*self.n+caf*angle)))*self.green
blue = abs(math.sin(2*pi*(b_prime/3+ctf*time+clf*self.n+caf*angle)))*self.blue
if seizure_mode:
#red, green, blue = red/self.radius, green/self.radius, blue/self.radius
red = abs(red*math.tan((2*pi*self.radius/node_big_radius)))
green = abs(green*math.tan((2*pi*self.radius/node_big_radius)))
blue = abs(blue*math.tan((2*pi*self.radius/node_big_radius)))
ol.color3(red, green, blue)
#do squares have radii?
s = self.radius
ol.begin(ol.POINTS)
ol.vertex3((-s, s,0))
ol.vertex3((-s, s,0))
ol.vertex3(( s, s,0))
ol.vertex3(( s,-s,0))
ol.vertex3((-s,-s,0))
ol.end()
def square(self,x1,y1,x2,y2):
# simple_rate = 3.0
# ol.rotate3Z(lux.time * pi * 0.1 * simple_rate)
# ol.rotate3X(lux.time * pi * 0.25 * simple_rate)
# ol.rotate3Y(lux.time * pi * 0.13 * simple_rate)
ol.begin(ol.LINESTRIP)
ol.vertex3((x1,y1,0))
ol.vertex3((x1,y2,0))
ol.vertex3((x2,y2,0))
ol.vertex3((x2,y1,0))
ol.vertex3((x1,y1,0))
ol.end()
def square(self, x1, y1, x2, y2):
# simple_rate = 3.0
# ol.rotate3Z(lux.time * pi * 0.1 * simple_rate)
# ol.rotate3X(lux.time * pi * 0.25 * simple_rate)
# ol.rotate3Y(lux.time * pi * 0.13 * simple_rate)
ol.begin(ol.LINESTRIP)
ol.vertex3((x1, y1, 0))
ol.vertex3((x1, y2, 0))
ol.vertex3((x2, y2, 0))
ol.vertex3((x2, y1, 0))
ol.vertex3((x1, y1, 0))
ol.end()
def draw(self, val):
'''a square'''
ol.loadIdentity3()
ol.loadIdentity()
ol.color3(self.color[0], self.color[1], self.color[2])
ol.translate3((self.x, self.y, 0))
ol.begin(ol.POINTS)
ol.vertex3((.0,.0,.0))
ol.vertex3((.0,.1,.0))
ol.vertex3((.1,.1,.0))
ol.vertex3((.1,.0,.0))
ol.vertex3((.0,.0,.0))
ol.end()
self.moving = True
return self
def draw(self, val):
'''a square'''
ol.loadIdentity3()
ol.loadIdentity()
ol.color3(self.color[0], self.color[1], self.color[2])
ol.translate3((self.x, self.y, 0))
ol.begin(ol.POINTS)
ol.vertex3((.0, .0, .0))
ol.vertex3((.0, .1, .0))
ol.vertex3((.1, .1, .0))
ol.vertex3((.1, .0, .0))
ol.vertex3((.0, .0, .0))
ol.end()
self.moving = True
return self
def draw(self):
if self.lines_only:
ol.begin(ol.LINESTRIP)
x, y = self.segments[0].start
ol.vertex3((x, y, 0), self.color)
for i in self.segments:
ol.vertex3((i.end[0], i.end[1], 0), self.color)
ol.end()
else:
ol.begin(ol.BEZIERSTRIP)
x, y = self.segments[0].start
ol.vertex3((x, y, 0), self.color)
for i in self.segments:
i = i.to_bezier4()
ol.vertex3((i.cp1[0], i.cp1[1], 0), self.color)
ol.vertex3((i.cp2[0], i.cp2[1], 0), self.color)
ol.vertex3((i.end[0], i.end[1], 0), self.color)
ol.end()
def draw(self):
time = lux.time
ctf = self.color_time_frequency
clf = self.color_length_frequency
caf = self.color_angle_frequency/2
theta0 = abs(math.sin(time*self.time_scale))
for braid_count in range(1,self.NUM_CIRCLES):
first = True
n = 0
theta = theta0
ol.color3(1.0, 0.0, 1.0);
ol.loadIdentity3()
ol.loadIdentity()
ol.perspective(40, 1, 1, 100)
ol.translate3((0, 0, -3))
ol.rotate3Z(lux.time * pi * self.z_rotations[braid_count])
ol.rotate3X(lux.time * pi * self.x_rotations[braid_count])
ol.rotate3Z(lux.time * pi * self.x_rotations[braid_count])
ol.begin(ol.LINESTRIP)
while theta < theta0 + 2*pi:
r = (0.5+sin(10*theta)/2.0) / float(braid_count) * self.scale
x = r * cos(theta)
y = r * sin(theta)
angle = math.atan2(y, x)/(2*pi)
red = abs(math.sin(2*pi*(self.r_prime/3+ctf*time+clf*n+caf*angle)+self.color_phases[braid_count]))
green = abs(math.sin(2*pi*(self.g_prime/3+ctf*time+clf*n+caf*angle)+self.color_phases[braid_count]))
blue = abs(math.sin(2*pi*(self.b_prime/3+ctf*time+clf*n+caf*angle)+self.color_phases[braid_count]))
ol.color3(red, green, blue)
ol.vertex3((x,y,0))
n += 1
theta += 1.0/float(self.max_segments)
r = (0.5+sin(10*theta)/2.0) / float(braid_count) * self.scale
x = r * cos(theta)
y = r * sin(theta)
ol.vertex3((x,y,0)) # Close the path
ol.end()
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
ol.color3(1.0, 0.0, 1.0);
font = ol.getDefaultFont()
s = "Lux!"
w = ol.getStringWidth(font, 0.2, s)
ol.drawString(font, (-w/2,0.1), 0.2, s)
ol.perspective(60, 1, 1, 100)
ol.translate3((0, 0, -3))
for i in range(2):
if (i == 1):
ol.color3(1.0,1.0,0.0);
else:
ol.color3(0.0,1.0,1.0);
ol.scale3((0.6, 0.6, 0.6))
ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.8 * lux.simple_rate)
ol.rotate3Y(lux.time * pi * 0.73 * lux.simple_rate)
ol.begin(ol.LINESTRIP)
ol.vertex3((-1, -1, -1))
ol.vertex3(( 1, -1, -1))
ol.vertex3(( 1, 1, -1))
ol.vertex3((-1, 1, -1))
ol.vertex3((-1, -1, -1))
ol.vertex3((-1, -1, 1))
ol.end()
ol.begin(ol.LINESTRIP);
ol.vertex3(( 1, 1, 1))
ol.vertex3((-1, 1, 1))
ol.vertex3((-1, -1, 1))
ol.vertex3(( 1, -1, 1))
ol.vertex3(( 1, 1, 1))
ol.vertex3(( 1, 1, -1))
ol.end()
ol.begin(ol.LINESTRIP)
ol.vertex3(( 1, -1, -1))
ol.vertex3(( 1, -1, 1))
ol.end()
ol.begin(ol.LINESTRIP)
ol.vertex3((-1, 1, 1))
ol.vertex3((-1, 1, -1))
ol.end()
def draw(self):
"""
Draw the healthbar shape.
"""
# Generate points
#print ("drawing healthbar")
full = self.radius/2
hPerc = self.health/float(HealthBar.HEALTH_MAX)
ihPerc = 1.0 - hPerc
green = full * hPerc
red = full * (1.0 - hPerc)
y = 0.01
xShift = 0.01
pts = []
pts.append({'x': full + xShift, 'y': y})
pts.append({'x': -full*2 + full*3*ihPerc + xShift, 'y': y})
# RED
"""
pts.append({'x': full - full*3 + xShift, 'y': y})
pts.append({'x': -full*2 + xShift, 'y': y})
"""
#pts.append({'x': -full*2, 'y': full})
#pts.append({'x': -full*2, 'y': full})
# Translate points
for pt in pts:
pt['x'] += self.x
pt['y'] += self.y
# DRAW THE SHAPE
ol.begin(ol.LINESTRIP)
for i in range(len(pts)):
ol.vertex((pts[i]['x'], pts[i]['y']), ol.C_WHITE)
ol.end()
self.drawn = True
def draw(self):
a = self.alpha * cos(lux.time / 10.0 * self.RATE)
b = self.beta * sin(lux.time / 7.0 * self.RATE) + 10
c = self.gamma * cos(lux.time / 11.0 * self.RATE)
A = self.rho
ol.loadIdentity3()
ol.loadIdentity()
ol.rotate3Z(lux.time * pi * 0.03)
ol.color3(*(self.color_cycle()))
ol.begin(ol.LINESTRIP)
for i in range(self.SAMPLES_PER_FRAME):
theta = float(i) / self.SAMPLES_PER_FRAME * self.MAX_THETA
r = exp(cos(a * theta)) - A * cos(b*theta) + pow(abs(sin(theta/c)),b)
r = r / (2.7 - A + pow(1,b)) * self.overall_amplitude
ol.vertex3((r * cos(theta), r * sin(theta), -1))
ol.end()
def draw(self):
self.tweener.add_tween(self, scale_factor=0.25, time_scale = 1.0, duration=0.1, \
easing=pytweener.Easing.Expo.ease_in_out)
ol.loadIdentity()
ol.loadIdentity3()
ol.translate3((-0.1, 0.0, 0.0))
ol.scale3((self.scale_factor, self.scale_factor, self.scale_factor))
# Spawn photons randomly
if len(self.photons) < MAX_PHOTONS and random.random() < SPAWN_THRESHOLD:
p = Photon();
self.photons.append(p)
# Draw photons
dt = self.time_scale * (lux.time - self.last_time)
self.last_time = lux.time
self.tweener.update(lux.time - self.last_time)
for p in self.photons:
p.update(dt, self.photon_speed)
p.draw()
ol.color3(1.0, 1.0, 1.0);
font = ol.getDefaultFont()
s = "LASER"
w = ol.getStringWidth(font, 1.0, s)
ol.drawString(font, (-w/2,1.1), 1.0, s)
# Draw the bounding box, with a very small hole in it.
ol.color3(0.0, 1.0, 0.0);
ol.begin(ol.LINESTRIP)
ol.vertex3(( CAVITY_SIZE[0]/2, 0.1, 0.0))
ol.vertex3(( CAVITY_SIZE[0]/2, CAVITY_SIZE[1]/2, 0.0))
ol.vertex3((-CAVITY_SIZE[0]/2, CAVITY_SIZE[1]/2, 0.0))
ol.vertex3((-CAVITY_SIZE[0]/2, -CAVITY_SIZE[1]/2, 0.0))
ol.vertex3(( CAVITY_SIZE[0]/2, -CAVITY_SIZE[1]/2, 0.0))
ol.vertex3(( CAVITY_SIZE[0]/2, -0.1, 0.0))
ol.end()
def draw(self):
self.tweener.add_tween(self, scale_factor=0.25, time_scale = 1.0, duration=0.1, \
easing=pytweener.Easing.Expo.ease_in_out)
ol.loadIdentity()
ol.loadIdentity3()
ol.translate3((-0.1, 0.0, 0.0))
ol.scale3((self.scale_factor, self.scale_factor, self.scale_factor))
# Spawn photons randomly
if len(self.photons) < MAX_PHOTONS and random.random(
) < SPAWN_THRESHOLD:
p = Photon()
self.photons.append(p)
# Draw photons
dt = self.time_scale * (lux.time - self.last_time)
self.last_time = lux.time
self.tweener.update(lux.time - self.last_time)
for p in self.photons:
p.update(dt, self.photon_speed)
p.draw()
ol.color3(1.0, 1.0, 1.0)
font = ol.getDefaultFont()
s = "LASER"
w = ol.getStringWidth(font, 1.0, s)
ol.drawString(font, (-w / 2, 1.1), 1.0, s)
# Draw the bounding box, with a very small hole in it.
ol.color3(0.0, 1.0, 0.0)
ol.begin(ol.LINESTRIP)
ol.vertex3((CAVITY_SIZE[0] / 2, 0.1, 0.0))
ol.vertex3((CAVITY_SIZE[0] / 2, CAVITY_SIZE[1] / 2, 0.0))
ol.vertex3((-CAVITY_SIZE[0] / 2, CAVITY_SIZE[1] / 2, 0.0))
ol.vertex3((-CAVITY_SIZE[0] / 2, -CAVITY_SIZE[1] / 2, 0.0))
ol.vertex3((CAVITY_SIZE[0] / 2, -CAVITY_SIZE[1] / 2, 0.0))
ol.vertex3((CAVITY_SIZE[0] / 2, -0.1, 0.0))
ol.end()
def draw(self):
"""
Draw the asteroid shape
"""
# Generate points
#print "drawing asteroid"
ed = self.radius
#print "asteroid radius = ", ed
pts = []
for pt in self.points:
pts.append(pt[:])
#print pts
#pts.append([ ed, ed])
#pts.append([-ed, ed])
#pts.append([-ed, -ed])
#pts.append([ ed, -ed])
#pts.append([ ed, ed])
# Rotate points
for p in pts:
x = p[0]
y = p[1]
p[0] = x*math.cos(self.theta) - y*math.sin(self.theta)
p[1] = y*math.cos(self.theta) + x*math.sin(self.theta)
# Translate points
#print "asteroid x,y = ", self.x, self.y
for pt in pts:
#print pt
pt[0] += self.x
pt[1] += self.y
#print pt
ol.begin(ol.LINESTRIP)
for p in pts:
ol.vertex(tuple(p), ol.C_WHITE)
ol.end()
self.drawn = True
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
for i in range(2):
ol.loadIdentity3()
ol.perspective(20, 1, 1, 100)
ol.translate3((0, 0, -20))
if (i == 1):
ol.color3(1.0,1.0,0.0);
ol.translate3((cos(lux.time/2.0), cos(lux.time/3.0), cos(lux.time/7.0)))
ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.25 * lux.simple_rate)
ol.rotate3Y(lux.time * pi * 0.13 * lux.simple_rate)
else:
ol.color3(0.0,1.0,1.0);
ol.scale3((0.6, 0.6, 0.6))
ol.translate3((cos(lux.time/3.2), cos(lux.time/2.6), cos(lux.time/5.4)))
ol.rotate3Z(lux.time * pi * 0.14 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.53 * lux.simple_rate)
ol.rotate3Y(lux.time * pi * 0.22 * lux.simple_rate)
ol.begin(ol.LINESTRIP)
ol.vertex3((-1, -1, -1))
ol.vertex3(( 1, -1, -1))
ol.vertex3(( 1, 1, -1))
ol.vertex3((-1, 1, -1))
ol.vertex3((-1, -1, -1))
ol.vertex3((-1, -1, 1))
ol.end()
ol.begin(ol.LINESTRIP);
ol.vertex3(( 1, 1, 1))
ol.vertex3((-1, 1, 1))
ol.vertex3((-1, -1, 1))
ol.vertex3(( 1, -1, 1))
ol.vertex3(( 1, 1, 1))
ol.vertex3(( 1, 1, -1))
ol.end()
ol.begin(ol.LINESTRIP)
ol.vertex3(( 1, -1, -1))
ol.vertex3(( 1, -1, 1))
ol.end()
ol.begin(ol.LINESTRIP)
ol.vertex3((-1, 1, 1))
ol.vertex3((-1, 1, -1))
ol.end()
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
# Grab the raw audio buffers
mono = audio_engine.left_buffer()
# mono = np.zeros(512)
# Make sure they aren't empty!!
if (mono.shape[0] == 0):
return
# Openlase can only draw 30000 points in one cycle (less that
# that, actually!). Clear the audio buffer and try again!
if mono.shape[0] > 10000:
audio_engine.clear_all()
ol.loadIdentity3()
ol.color3(*(self.color_cycle()))
count = 0
while count < mono.shape[0]:
ol.begin(ol.LINESTRIP)
while self.x_coord < 1.0 and count < mono.shape[0]:
scale_factor = pow(1.0-abs(self.x_coord),0.5)*2
#ol.vertex3((self.x_coord, mono[count]*scale_factor, -1)) # Linear
ol.vertex3((self.x_coord, tanh(mono[count]*scale_factor), -1)) # Tanh
#ol.vertex3((self.x_coord, log(mono[count]*scale_factor+1.0), -1)) # Sigmoid
self.x_coord += self.step
count = count + self.subsamp
ol.end()
if self.x_coord >= 1.0:
self.x_coord = -1.0
ol.end()
def draw(self):
"""
Draw the ship shape.
"""
# Generate points
#print "drawing ship"
ed = self.radius/2
#print "ed = ", ed
pts = []
pts.append([ed, ed])
#pts.append([-ed, ed])
pts.append([-ed-ed*2, 0])
#pts.append([-ed, -ed])
pts.append([ed, -ed])
pts.append([ed/2, 0])
pts.append([ed, ed])
# Rotate points
for p in pts:
x = p[0]
y = p[1]
p[0] = x*math.cos(self.theta) - y*math.sin(self.theta)
p[1] = y*math.cos(self.theta) + x*math.sin(self.theta)
# Translate points
for pt in pts:
pt[0] += self.x
pt[1] += self.y
ol.begin(ol.LINESTRIP)
for i in range(5):
for p in pts:
#print p
ol.vertex(tuple(p), ol.C_WHITE)
ol.end()
self.drawn = True
def draw(self, target = None):
for particle in reversed(self.tail):
# draw connecting lines
if particle.follow:
new_x, new_y = particle.follow.x, particle.follow.y
if draw_links:
ol.color3(1,0,1) # magenta links
ol.loadIdentity3()
ol.loadIdentity()
ol.begin(ol.LINESTRIP)
ol.vertex3((particle.x, particle.y, 0))
ol.vertex3((particle.follow.x, particle.follow.y, 0))
ol.end()
else:
if target: new_x, new_y = target[0], target[1]
else: new_x, new_y = math.cos(3*lux.time), math.sin(2*lux.time)
#new_x, new_y = self.mouse_x, self.mouse_y
particle.draw('blah')
if abs(particle.x - new_x) > 0.01 or abs(particle.y - new_y) > 0.01:
self.tweener.add_tween(particle, x=new_x, y=new_y, duration=0.6, \
easing=pytweener.Easing.Cubic.ease_out, on_complete=particle.finish, on_update=particle.draw)
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
ol.perspective(60, 1, 1, 100)
ol.translate3((0, 0, -3))
ol.color3(1.0,1.0,1.0)
offset = cos(lux.time*10)
ol.begin(ol.LINESTRIP)
npts = 25
#ol.scale3((0.5,0.5,0.5))
for i in range(npts):
ol.color3(float(i)/npts,1.0-float(i)/npts,(float(i)/npts+(1.0-float(i)/npts))/2.0)
offset = 0
mod = (i%2 * 2.0 - 1.0) * 0.99
#ol.scale3((mod, mod, mod))
ol.rotate3Z(lux.time * pi * 0.01 * lux.simple_rate)
ol.vertex3((float(i)/(npts/2.0)-1.0+offset,-1.0,-1))
ol.vertex3((float(i)/(npts/2.0)-1.0+offset,1.0,-1))
ol.end()
def draw(self, audio):
'''a square'''
#self.x = math.cos(2*pi*rotate_frequency*lux.time + self.angle + self.base_angle) * self.distance * self.distance_scale
#self.y = math.sin(2*pi*rotate_frequency*lux.time + self.angle + self.base_angle) * self.distance * self.distance_scale
#stolen from guilloche
time = lux.time * time_scale
R = math.sin(2 * pi * self.R_frequency * time) * self.R + 0.0001
r = math.sin(2 * pi * self.r_frequency * time) * self.r + 0.0001
p = math.sin(2 * pi * self.p_frequency * time) * self.p + 0.0001
self.x = (R + r) * math.cos(time) + (r + p) * math.cos(
(R + r) / r * time)
self.y = (R + r) * math.sin(time) + (r + p) * math.sin(
(R + r) / r * time)
#clamp to display area
if clamp_display:
if self.x > 1: self.x = 1
if self.y > 1: self.y = 1
if self.x < -1: self.x = -1
if self.y < -1: self.y = -1
self.x *= scale
self.y *= scale
#self.graphics.circle(0, 0, self.radius)
ol.loadIdentity3()
ol.loadIdentity()
#ol.color3(self.color[0], self.color[1], self.color[2])
ol.color3(self.red, self.green, self.blue)
ol.translate3((self.x, self.y, 0))
angle = math.atan2(self.y, self.x) / (2 * pi)
red = self.red #abs(math.sin(2*pi*(r_prime/3+ctf*time+clf*self.n+caf*angle)))*self.red
green = abs(
math.sin(2 * pi * (g_prime / 3 + ctf * time + clf * self.n +
caf * angle))) * self.green
blue = abs(
math.sin(2 * pi * (b_prime / 3 + ctf * time + clf * self.n +
caf * angle))) * self.blue
if seizure_mode:
#red, green, blue = red/self.radius, green/self.radius, blue/self.radius
red = abs(red * math.tan((2 * pi * self.radius / node_big_radius)))
green = abs(green * math.tan(
(2 * pi * self.radius / node_big_radius)))
blue = abs(blue * math.tan(
(2 * pi * self.radius / node_big_radius)))
if audio:
try:
#seems most of the time all the samples are empty
#sample_index = int((self.n/max_nodes)*audio[0].shape[0])
sample_index = 0 #self.n
sample = audio[0][n]
except:
sample = 1
else:
sample = 1 #[0 for x in range(10000)] #empty vector
#print sample
if audio:
red = red
blue = blue + sample * self.audio_gain
green = green + sample * self.audio_gain
ol.color3(red, green, blue)
if self.last_sample - sample > 0.1:
pass #pulse
#do squares have radii?
s = self.radius
ol.begin(ol.POINTS)
ol.vertex3((-s, s, 0))
ol.vertex3((-s, s, 0))
ol.vertex3((s, s, 0))
ol.vertex3((s, -s, 0))
ol.vertex3((-s, -s, 0))
ol.end()
def draw(self):
self.i=self.i+1.0;
#inverse persistence length
self.thetad=0.25*(1.0+sin(2.0*pi*self.i/2000.0))
#RGB curliness offset
offset=pi/6.0
#RGB curly-straight cycle frequency
crlstrt=0.005
#RGB maximum curlyness
curlmx=0.2
theta0B=curlmx*cos(self.i*crlstrt)
theta0R=curlmx*cos(self.i*crlstrt+offset)
theta0G=curlmx*cos(self.i*crlstrt+2.0*offset)
self.thetaB=self.thetaB+random.gauss(theta0B,self.thetad)
self.thetaR=self.thetaR+random.gauss(theta0R,self.thetad)
self.thetaG=self.thetaG+random.gauss(theta0G,self.thetad)
self.BX=np.append(self.BX[1:], self.BX[-1]+self.dr*cos(self.thetaB))
self.BY=np.append(self.BY[1:], self.BY[-1]+self.dr*sin(self.thetaB))
self.RX=np.append(self.RX[1:], self.RX[-1]+self.dr*cos(self.thetaR))
self.RY=np.append(self.RY[1:], self.RY[-1]+self.dr*sin(self.thetaR))
self.GX=np.append(self.GX[1:], self.GX[-1]+self.dr*cos(self.thetaG))
self.GY=np.append(self.GY[1:], self.GY[-1]+self.dr*sin(self.thetaG))
# derivative roughness parameter
# b=0.1;
# if b != 0.0:
# [Fx,Fy]=gradient([self.BX;self.RX;self.GX;self.BY;self.RY;self.GY])
# self.BX=b*Fx(4,:)+self.BX
# self.RX=b*Fx(5,:)+self.RX
# self.GX=b*Fx(6,:)+self.GX
# self.BY=b*Fx(1,:)+self.BY
# self.RY=b*Fx(2,:)+self.RY
# self.GY=b*Fx(3,:)+self.GY
#combine paths
rmult=0.0001;
if 1:
fmB=0.5
fmG=0.5
# self.BX=(self.BX+self.RX+(2*random.uniform(1,self.N)-1.0)*rmult)/2.0
self.BX=(self.BX+self.RX)/2.0
self.BY=(self.BY+self.RY+(2*random.uniform(1,self.N)-1.0)*rmult)/2.0
self.RX=(self.RX+self.GX+(2*random.uniform(1,self.N)-1.0)*rmult)/2.0
self.RY=(self.RY+self.GY+(2*random.uniform(1,self.N)-1.0)*rmult)/2.0
self.GX=(self.BX+self.GX+(2*random.uniform(1,self.N)-1.0)*rmult)/2.0
self.GY=(self.BY+self.GY+(2*random.uniform(1,self.N)-1.0)*rmult)/2.0
else:
fmB=1.0
fmG=1.0
#spin frequency
freq=0.01+random.gauss(0,0.002)
self.BX=cos(freq*fmB)*self.BX-sin(freq*fmB)*self.BY
self.BY=sin(freq*fmB)*self.BX+cos(freq*fmB)*self.BY
self.RX=cos(freq)*self.RX-sin(freq)*self.RY
self.RY=sin(freq)*self.RX+cos(freq)*self.RY
self.GX=cos(freq*fmG)*self.GX-sin(freq*fmG)*self.GY
self.GY=sin(freq*fmG)*self.GX+cos(freq*fmG)*self.GY
#centering
self.BX=self.BX-self.BX.mean()
self.BY=self.BY-self.BY.mean()
self.RX=self.RX-self.RX.mean()
self.RY=self.RY-self.RY.mean()
self.GX=self.GX-self.GX.mean()
self.GY=self.GY-self.GY.mean()
#scaling and bouncy factor
bounce=5.0
self.fB = self.fB + ((self.fB+max(np.sqrt(self.BX**2+self.BY**2)))/2.0-self.fB)/bounce
self.fR = self.fR + ((self.fR+max(np.sqrt(self.RX**2+self.RY**2)))/2.0-self.fR)/bounce
self.fG = self.fG + ((self.fG+max(np.sqrt(self.GX**2+self.GY**2)))/2.0-self.fG)/bounce
self.BX=self.BX/self.fB
self.BY=self.BY/self.fB
self.RX=self.RX/self.fR
self.RY=self.RY/self.fR
self.GX=self.GX/self.fG
self.GY=self.GY/self.fG
####################################
#LUX RENDERING CODE
####################################
ol.loadIdentity3()
ol.loadIdentity()
# ol.color3(*(self.color_cycle()))
ol.scale3((self.scale_factor,self.scale_factor,self.scale_factor))
theta_rot = 0.4*cos(1.7 * lux.time * self.ROT_RATE) + 0.6*cos(0.7 * lux.time * self.ROT_RATE)
ol.rotate3Z(theta_rot)
render_type = ol.POINTS
current_hue_marker = self.writhe_current_hue
current_hue_target = self.writhe_hue_target
current_hue_step = self.writhe_hue_step
# ol.color3(0.0,0.0,1.0)
ol.begin(ol.POINTS)
for i in range(self.BX.shape[0]):
ol.color3(*(self.writhe_color_cycle()))
ol.vertex3((self.BX[i], self.BY[i], -1))
ol.end()
self.writhe_current_hue = current_hue_marker
self.writhe_current_target = current_hue_target
self.writhe_current_step = current_hue_step
ol.begin(ol.POINTS)
for i in range(self.BX.shape[0]):
ol.color3(*(self.writhe_color_cycle()))
ol.vertex3((-self.BX[i], self.BY[i], -1))
ol.end()
self.writhe_current_hue = current_hue_marker
self.writhe_current_target = current_hue_target
self.writhe_current_step = current_hue_step
ol.begin(ol.POINTS)
for i in range(self.BX.shape[0]):
ol.color3(*(self.writhe_color_cycle()))
ol.vertex3((self.BX[i], -self.BY[i], -1))
ol.end()
self.writhe_current_hue = current_hue_marker
self.writhe_current_target = current_hue_target
self.writhe_current_step = current_hue_step
ol.begin(ol.POINTS)
for i in range(self.BX.shape[0]):
ol.color3(*(self.writhe_color_cycle()))
ol.vertex3((-self.BX[i], -self.BY[i], -1))
ol.end()
def draw(self):
ol.loadIdentity()
ol.color3(1.0, 1.0, 1.0)
# bounding box
ol.begin(ol.LINESTRIP)
self.square(1, 1, -1, -1)
ol.end()
# horizontal line
ol.begin(ol.LINESTRIP)
ol.vertex((-1, 0))
ol.vertex((1, 0))
ol.end()
# vertical line
ol.begin(ol.LINESTRIP)
ol.vertex((0, -1))
ol.vertex((0, 1))
ol.end()
# inner box, for fun
ol.color3(0.0, 1.0, 0.0)
size = (sin(lux.time) * .2) + .5
ol.begin(ol.LINESTRIP)
self.square(size, size, -size, -size)
ol.end()
# Red dots
ol.loadIdentity()
ol.loadIdentity3()
ol.begin(ol.LINESTRIP)
for y in range(0, 20):
ol.color3(float(y) / 20.0, 0.0, 0.0)
ol.vertex3((-0.6, (float(y - 10) / 12.0), -1.0))
ol.end()
# Green dots
ol.begin(ol.LINESTRIP)
for y in range(0, 20):
ol.color3(0.0,
float(y) / 20.0, 0.0)
ol.vertex3((-0.4, (float(y - 10) / 12.0), -1.0))
ol.end()
# Blue dots
ol.begin(ol.LINESTRIP)
for y in range(0, 20):
ol.color3(0.0, 0.0,
float(y) / 20.0)
ol.vertex3((-0.2, (float(y - 10) / 12.0), -1.0))
ol.end()
# vertical line
ol.begin(ol.LINESTRIP)
ol.vertex((0, -1))
ol.vertex((0, 1))
ol.end()
def draw(self):
ol.loadIdentity3()
ol.loadIdentity()
#ol.color3(1.0, 0.0, 1.0);
#font = ol.getDefaultFont()
#s = "Lux!"
#w = ol.getStringWidth(font, 0.2, s)
#ol.drawString(font, (-w/2,0.1), 0.2, s)
ol.perspective(60, 1, 1, 100)
ol.translate3((0, 0, -3))
#Dodecahedron---------------------------
ol.color3(1.0,1.0,1.0);
ol.scale3((0.8, 0.8, 0.8))
ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.8 * lux.simple_rate)
ol.rotate3Y(lux.time * pi * 0.73 * lux.simple_rate)
for face in self.dodeca_face_edges:
ol.begin(ol.LINESTRIP)
ol.vertex3(face[0])
ol.vertex3(face[1])
ol.vertex3(face[2])
ol.vertex3(face[3])
ol.vertex3(face[4])
ol.vertex3(face[0])
ol.end()
#Icosahedron---------------------------
ol.color3(1.0,1.0,0.0);
ol.scale3((0.9, 0.9, 0.9))
ol.rotate3Z(lux.time * pi * 0.5 * lux.simple_rate)
#ol.rotate3X(lux.time * pi * 0.8 * lux.simple_rate)
#ol.rotate3Y(lux.time * pi * 0.73 * lux.simple_rate)
for face in self.icos_face_edges:
ol.begin(ol.LINESTRIP)
ol.vertex3(face[0])
ol.vertex3(face[1])
ol.vertex3(face[2])
ol.vertex3(face[0])
ol.end()
#for strip in self.icos_face_edges:
# ol.begin(ol.LINESTRIP)
# for f in strip:
# ol.vertex3(f)
# ol.end()
#Cube---------------------------
# ol.color3(0.0,0.0,1.0);
# ol.scale3((0.4, 0.4, 0.4))
# #ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
# #ol.rotate3X(lux.time * pi * 0.8 * lux.simple_rate)
# ol.rotate3Y(lux.time * pi * 0.73 * lux.simple_rate)
# ol.begin(ol.LINESTRIP)
# ol.vertex3((-1, -1, -1))
# ol.vertex3(( 1, -1, -1))
# ol.vertex3(( 1, 1, -1))
# ol.vertex3((-1, 1, -1))
# ol.vertex3((-1, -1, -1))
# ol.vertex3((-1, -1, 1))
# ol.end()
# ol.begin(ol.LINESTRIP);
# ol.vertex3(( 1, 1, 1))
# ol.vertex3((-1, 1, 1))
# ol.vertex3((-1, -1, 1))
# ol.vertex3(( 1, -1, 1))
# ol.vertex3(( 1, 1, 1))
# ol.vertex3(( 1, 1, -1))
# ol.end()
# ol.begin(ol.LINESTRIP)
# ol.vertex3(( 1, -1, -1))
# ol.vertex3(( 1, -1, 1))
# ol.end()
# ol.begin(ol.LINESTRIP)
# ol.vertex3((-1, 1, 1))
# ol.vertex3((-1, 1, -1))
# ol.end()
#Octahedron------------------------
ol.color3(0.0,0.0,1.0);
ol.scale3((.8, .8, .8))
#ol.rotate3Z(lux.time * pi * 0.1 * lux.simple_rate)
ol.rotate3X(lux.time * pi * 0.8 * lux.simple_rate)
#ol.rotate3Y(lux.time * pi * 0.73 * lux.simple_rate)
for strip in self.octahedron_face_edges:
ol.begin(ol.LINESTRIP)
for f in strip:
ol.vertex3(f)
ol.end()
def draw(self):
theta = arange(0, 2 * pi, 2 * pi / self.N)
# rotations in q-space
mu = 0.01
std = 0.001
dth1 = random.gauss(mu, std)
dth2 = random.gauss(mu, std)
dth3 = random.gauss(mu, std)
dth4 = random.gauss(mu, std)
dth5 = random.gauss(mu, std)
dth1b = random.gauss(mu, std)
dth2b = random.gauss(mu, std)
dth3b = random.gauss(mu, std)
dth4b = random.gauss(mu, std)
dth5b = random.gauss(mu, std)
# dth1=self.dtheta*(1-2*(random.random()<self.cut));
# dth2=self.dtheta*(1-2*(random.random()<self.cut));
# dth3=self.dtheta*(1-2*(random.random()<self.cut));
# dth4=self.dtheta*(1-2*(random.random()<self.cut));
# dth5=self.dtheta*(1-2*(random.random()<self.cut));
# dth1b=self.dtheta*(1-2*(random.random()<self.cut));
# dth2b=self.dtheta*(1-2*(random.random()<self.cut));
# dth3b=self.dtheta*(1-2*(random.random()<self.cut));
# dth4b=self.dtheta*(1-2*(random.random()<self.cut));
# dth5b=self.dtheta*(1-2*(random.random()<self.cut));
self.th1 = self.th1 + dth1
self.th2 = self.th2 + dth2
self.th3 = self.th3 + dth3
self.th4 = self.th4 + dth4
self.th5 = self.th5 + dth5
self.th1b = self.th1b + dth1b
self.th2b = self.th2b + dth2b
self.th3b = self.th3b + dth3b
self.th4b = self.th4b + dth4b
self.th5b = self.th5b + dth5b
c1 = self.m1 * cos(self.th1)
s1 = self.m1 * sin(self.th1)
c2 = self.m2 * cos(self.th2)
s2 = self.m2 * sin(self.th2)
c3 = self.m3 * cos(self.th3)
s3 = self.m3 * sin(self.th3)
c4 = self.m4 * cos(self.th4)
s4 = self.m4 * sin(self.th4)
c5 = self.m5 * cos(self.th5)
s5 = self.m5 * sin(self.th5)
X = c1 * cos(theta + self.th1b) + c2 * cos(
2 * theta +
self.th2b) + c3 * cos(3 * theta + self.th3b) + c4 * cos(
4 * theta + self.th4b) + c5 * cos(5 * theta + self.th5b)
Y = s1 * sin(theta + self.th1b) + s2 * sin(
2 * theta +
self.th2b) + s3 * sin(3 * theta + self.th3b) + s4 * sin(
4 * theta + self.th4b) + s5 * sin(5 * theta + self.th5b)
X = (X - X.mean()).astype("complex")
Y = (Y - Y.mean()).astype("complex")
s = arange(1, self.N + 1, 1)
Xtemp = X**self.p1x * Y**self.p1y + 2 * s * 1j - self.N * 1j
Ytemp = X**self.p2x * Y**self.p2y + 2 * s * 1j - self.N * 1j
X = Xtemp.real
Y = Ytemp.real
X = tanh(2 * X)
Y = tanh(2 * Y)
ol.loadIdentity3()
ol.loadIdentity()
ol.color3(*(self.color_cycle()))
render_type = ol.POINTS
ol.begin(ol.POINTS)
for i in range(X.shape[0]):
ol.vertex3((X[i], Y[i], -1))
ol.vertex3((X[0], Y[0], -1))
ol.end()
ol.begin(ol.POINTS)
for i in range(X.shape[0]):
ol.vertex3((-X[i], Y[i], -1))
ol.vertex3((-X[0], Y[0], -1))
ol.end()
ol.begin(ol.POINTS)
for i in range(X.shape[0]):
ol.vertex3((0.7 * X[i], -0.7 * Y[i], -1))
ol.vertex3((0.7 * X[0], -0.7 * Y[0], -1))
ol.end()
ol.begin(ol.POINTS)
for i in range(X.shape[0]):
ol.vertex3((-0.7 * X[i], -0.7 * Y[i], -1))
ol.vertex3((-0.7 * X[0], -0.7 * Y[0], -1))
ol.end()
