def step(self, amt=1):
center = float(self._maxLed) / 2
center_floor = math.floor(center)
center_ceil = math.ceil(center)
if self._centerOut:
self.layout.fill(bp_colors.hue2rgb(self._step),
int(center_floor - self._current),
int(center_floor - self._current))
self.layout.fill(bp_colors.hue2rgb(self._step),
int(center_ceil + self._current),
int(center_ceil + self._current))
else:
self.layout.fill(bp_colors.hue2rgb(self._step), int(self._current),
int(self._current))
self.layout.fill(bp_colors.hue2rgb(self._step),
int(self._maxLed - self._current),
int(self._maxLed - self._current))
if self._step == len(bp_colors.conversions.HUE_RAINBOW) - 1:
self._step = 0
else:
self._step += amt + self._rainbowInc
if self._step > len(bp_colors.conversions.HUE_RAINBOW) - 1:
self._step = 0
if self._current == center_floor:
self._current = self._minLed
else:
self._current += amt
delay_time = MidiTransform.remap_cc_value(self.delay_control, 0, 1)
time.sleep(delay_time)
def step(self, amt=1):
center = float(self._maxLed) / 2
center_floor = math.floor(center)
center_ceil = math.ceil(center)
if self._centerOut:
self.layout.fill(
colors.hue2rgb(self._step), int(center_floor - self._current), int(center_floor - self._current))
self.layout.fill(
colors.hue2rgb(self._step), int(center_ceil + self._current), int(center_ceil + self._current))
else:
self.layout.fill(
colors.hue2rgb(self._step), int(self._current), int(self._current))
self.layout.fill(
colors.hue2rgb(self._step), int(self._maxLed - self._current), int(self._maxLed - self._current))
if self._step == len(colors.conversions.HUE_RAINBOW) - 1:
self._step = 0
else:
self._step += amt + self._rainbowInc
if self._step > len(colors.conversions.HUE_RAINBOW) - 1:
self._step = 0
if self._current == center_floor:
self._current = self._minLed
else:
self._current += amt
def step(self, amt=1):
self._led.all_off()
for i in range(self._growthRate):
newTail = random.randrange(0, 360, self._angleDiff)
self._tails[newTail].append(0)
for a in range(360):
angle = self._tails[a]
if len(angle) > 0:
removals = []
for r in range(len(angle)):
tail = angle[r]
if tail <= self.lastRing:
c = colors.hue2rgb(tail * (255 // self.lastRing))
self._drawTail(a, tail, c)
colors.hue2rgb(tail * (255 // self.lastRing))
if tail - (self._tail - 1) <= self.lastRing:
tail = tail + amt
self._tails[a][r] = tail
else:
removals.append(tail)
for r in removals:
self._tails[a].remove(r)
self._step = 0
def step(self, amt=1):
t = time.localtime()
r, g, b = colors.hue2rgb(t.tm_hour * (256 // 24))
self.layout.fillRGB(r, g, b, self._hStart, self._hEnd)
r, g, b = colors.hue2rgb(t.tm_min * (256 // 60))
self.layout.fillRGB(r, g, b, self._mStart, self._mEnd)
r, g, b = colors.hue2rgb(t.tm_sec * (256 // 60))
self.layout.fillRGB(r, g, b, self._sStart, self._sEnd)
self._step = 0
def step(self, amt=1):
t = time.localtime()
self.layout.all_off()
c = colors.hue2rgb((t.tm_hour - 12) * (256 // 12))
self.layout.set_text(str(t.tm_hour - 12).zfill(2), c, index=0)
c = colors.hue2rgb(t.tm_min * (256 // 60))
self.layout.set_text(str(t.tm_min).zfill(2), c, index=2)
c = colors.hue2rgb(t.tm_sec * (256 // 60))
self.layout.set_text(str(t.tm_sec).zfill(2), c, index=4)
self._step = 0
def step(self, amt=1):
num_colors = int(MidiTransform.remap_cc_value(self.color_control, 1, 10))
hue = int(MidiTransform.remap_cc_value(self.color_control, 1, 255))
levels_count = int(MidiTransform.remap_cc_value(self.width_control, 5, 25))
self._levels = self.wave_range(30, 255, levels_count)
if num_colors > 1:
hues = bp_colors.hue_gradient(0, hue, num_colors)
else:
hues = [hue]
self._colors = list(map(lambda x: bp_colors.hue2rgb(x), hues))
self._level_count = len(self._levels)
self._color_count = len(self._colors)
if self._step > self._level_count * self._color_count:
self._step = 0
c_index = (self._step // self._level_count) % self._color_count
l_index = (self._step % self._level_count)
color = self._colors[c_index]
self.layout.fill(bp_colors.color_scale(color, self._levels[l_index]), self._start, self._end)
self._step += amt
delay_time = MidiTransform.remap_cc_value(self.delay_control, 0, 1)
time.sleep(delay_time)
def step(self, amt=1):
self.layout.all_off()
for i in range(self._growthRate):
x = random.randint(0, self.x - 1)
z = random.randint(0, self.z - 1)
self._drops[x][z].append(0)
for x in range(self.x):
for z in range(self.z):
col = self._drops[x][z]
if len(col) > 0:
removals = []
for y in range(len(col)):
drop = col[y]
if drop < self.y:
self._drawDrop(
x, drop, z,
colors.hue2rgb(drop * (255 // self.y)))
if drop - (self._tail - 1) < self.y:
drop = drop + 1
self._drops[x][z][y] = drop
else:
removals.append(drop)
for r in removals:
self._drops[x][z].remove(r)
self._step = 0
def step(self, amt=1):
num_colors = int(
MidiTransform.remap_cc_value(self.count_control, 1, 10))
hue = int(MidiTransform.remap_cc_value(self.color_control, 1, 255))
self._width = int(
MidiTransform.remap_cc_value(self.width_control, 1, 100))
if num_colors > 1:
hues = bp_colors.hue_gradient(0, hue, num_colors)
else:
hues = [hue]
self._colors = list(map(lambda x: bp_colors.hue2rgb(x), hues))
self._color_count = len(self._colors)
self._total_width = self._width * self._color_count
for i in range(self._size):
cIndex = ((i + self._step) % self._total_width) // self._width
self.layout.set(i, self._colors[cIndex])
self._step += amt * (1 if self._dir else -1)
if self._dir and self._step >= self.layout.numLEDs:
self._step = 0
elif not self._dir and self._step < 0:
self._step = self.layout.numLEDs - 1
delay_time = MidiTransform.remap_cc_value(self.delay_control, 0, 1)
time.sleep(delay_time)
def step(self, amt=1):
self._led.all_off()
t = time.localtime()
hrs = t.tm_hour % 12
mins = t.tm_min
sec = t.tm_sec
h_hrs = hrs * (256 // 12)
h_min = mins * (256 // 60)
h_sec = sec * (256 // 60)
grad = []
grad += colors.hue_gradient(h_hrs, h_min, self.half)
if self.odd:
grad += [h_min]
grad += colors.hue_gradient(h_min, h_sec, self.half)
log.debug('{}:{}:{}'.format(hrs, mins, sec))
for x in range(self.cdim):
self._led.drawLine(x, 0, x, self._led.height - 1,
colors.hue2rgb(grad[x]))
self._step = 0
def step(self, amt=1):
self._led.all_off()
for i in range(self._growthRate):
newDrop = random.randint(0, self._led.width - 1)
self._drops[newDrop].append(0)
for x in range(self._led.width):
col = self._drops[x]
if len(col) > 0:
removals = []
for y in range(len(col)):
drop = col[y]
if drop < self._led.height:
self._drawDrop(
x, drop,
colors.hue2rgb(drop * (255 / self._led.height)))
if drop - (self._tail - 1) < self._led.height:
drop = drop + 1
self._drops[x][y] = drop
else:
removals.append(drop)
for r in removals:
self._drops[x].remove(r)
self._step = 0
def step(self, amt=1):
self._tail = int(MidiTransform.remap_cc_value(self.count_control, 2, self._size))
hue = int(MidiTransform.remap_cc_value(self.color_control, 1, 255))
hues = bp_colors.hue_gradient(0, hue, 3)
self._colors = list(map(lambda x: bp_colors.hue2rgb(x), hues))
self._ledcolors = [(0, 0, 0) for i in range(self._size)]
self.layout.all_off()
for i in range(0, 3):
self._currentpos[i] = self._start + self._steps[i]
# average the colors together so they blend
self._ledcolors[self._currentpos[i]] = list(map(lambda x, y: (x + y) // 2, self._colors[i], self._ledcolors[self._currentpos[i]]))
for j in range(1, self._tail):
if self._currentpos[i] - j >= 0:
self._ledcolors[self._currentpos[i] - j] = list(map(lambda x, y: (x + y) // 2, self._ledcolors[self._currentpos[i] - j], bp_colors.color_scale(self._colors[i], 255 - (self._fadeAmt * j))))
if self._currentpos[i] + j < self._size:
self._ledcolors[self._currentpos[i] + j] = list(map(lambda x, y: (x + y) // 2, self._ledcolors[self._currentpos[i] + j], bp_colors.color_scale(self._colors[i], 255 - (self._fadeAmt * j))))
if self._start + self._steps[i] >= self._end:
self._direction[i] = -1
elif self._start + self._steps[i] <= 0:
self._direction[i] = 1
# advance each searchlight at a slightly different speed
self._steps[i] += self._direction[i] * amt * int(random.random() > (i * 0.05))
for i, thiscolor in enumerate(self._ledcolors):
self.layout.set(i, thiscolor)
delay_time = MidiTransform.remap_cc_value(self.delay_control, 0, 1)
time.sleep(delay_time)
def step(self, amt=1):
for i in range(self._size):
h = (i + self._step) % 255
self.layout.set(self._start + i, colors.hue2rgb(h))
self._step += amt
overflow = self._step - 256
if overflow >= 0:
self._step = overflow
def step(self, amt):
for y in range(self.height):
for x in range(self.width):
v = int(
self.func(x / self._freq,
y / self._freq,
self._step / self._freq,
octaves=self._octaves) * 127.0 + 128.0)
c = colors.hue2rgb(v)
self.layout.set(x, y, c)
self._step += amt
def step(self, amt=1):
self.layout.all_off()
t = time.localtime()
hrs = t.tm_hour % 12
mins = t.tm_min
sec = t.tm_sec
p_hrs = pointOnCircle(self._centerX, self._centerY,
int(self.hand_length * 0.7), hrs * 30)
p_min = pointOnCircle(self._centerX, self._centerY, self.hand_length,
mins * 6)
p_sec = pointOnCircle(self._centerX, self._centerY, self.hand_length,
sec * 6)
c_hrs = colors.hue2rgb(hrs * (256 // 12))
c_min = colors.hue2rgb(mins * (256 // 60))
c_sec = colors.hue2rgb(sec * (256 // 60))
self.layout.drawLine(self._centerX,
self._centerY,
p_hrs[0],
p_hrs[1],
c_hrs,
aa=self.aa)
self.layout.drawLine(self._centerX,
self._centerY,
p_min[0],
p_min[1],
c_min,
aa=self.aa)
self.layout.drawLine(self._centerX,
self._centerY,
p_sec[0],
p_sec[1],
c_sec,
aa=self.aa)
self._step = 0
def step(self, amt):
for y in range(self.x):
for x in range(self.y):
for z in range(self.z):
v = int(
snoise4(x / self._freq,
y / self._freq,
z / self._freq,
self._step / self._freq,
octaves=self._octaves) * 127.0 + 128.0)
c = colors.hue2rgb(v)
self._led.set(x, y, z, c)
self._step += amt
def draw(self, anim, left, right):
chan = (len(left) + len(right))
bar_w = int(self.width / chan)
pos = (self.width - (bar_w * chan)) / 2
count = 0
for level in left + right:
if self.use_hue:
c = colors.hue2rgb(level)
else:
c = self.colors[count % len(self.colors)]
self.rect(pos, self.height - self.height_map[level],
bar_w, self.height, c)
pos += bar_w
count += 1
def step(self, amt=1):
if self._individualPixel:
# This setting will change the colour of each pixel on each cycle
self.layout.fill(colors.hue2rgb(self._step), self._current,
self._current)
else:
# This setting will change the colour of all pixels on each cycle
self.layout.fill(colors.wheel_color(self._step), 0, self._current)
if self._step == len(colors.conversions.HUE_RAINBOW) - 1:
self._step = 0
else:
self._step += amt
if self._current == self._maxLed:
self._current = self._minLed
else:
self._current += amt
def step(self, amt = 1):
self._led.all_off()
for i in range(self._growthRate):
newDrop = random.randint(0, self._led.width - 1)
self._drops[newDrop].append(0);
for x in range(self._led.width):
col = self._drops[x]
if len(col) > 0:
removals = []
for y in range(len(col)):
drop = col[y]
if drop < self._led.height:
self._drawDrop(x, drop, colors.hue2rgb(drop * (255/self._led.height)))
if drop - (self._tail - 1) < self._led.height:
drop = drop + 1
self._drops[x][y] = drop
else:
removals.append(drop)
for r in removals:
self._drops[x].remove(r)
self._step = 0
def color_map(self, width, offset=0):
return [
colors.hue2rgb((((i * (255)) // (width - 1)) + offset) % 256)
for i in range(width)
]
def step(self, amt=1):
for i in range(self.layout.numLEDs):
self.layout.set(i, colors.hue2rgb((i * 4) % 256))
def color_map(self, width, offset=0):
return [colors.hue2rgb((((i * (255)) / (width - 1)) + offset) % 256) for i in range(width)]
import bibliopixel.colors as colors
import bibliopixel.image as image
from bibliopixel.led import *
from bibliopixel.drivers.driver_base import *
from lightshow_serial_driver import *
from bibliopixel import log
from PIL import Image, ImageSequence, ImageChops, ImageEnhance
from driver_sacn import DriverSACN
log.setLogLevel(log.WARNING)
# log.setLogLevel(log.DEBUG)
color_map = [list(colors.hue2rgb(c)) for c in range(256)]
green_map = [list(colors.Green) for g in range(256)]
graded_green_map = [colors.Green for g in range(0)] + \
[colors.Green for g in range(15)] + \
[colors.Green for g in range(31)] + \
[colors.Green for g in range(47)] + \
[colors.Green for g in range(63)] + \
[colors.Green for g in range(79)] + \
[colors.Green for g in range(95)] + \
[colors.Green for g in range(111)] + \
[colors.Green for g in range(127)] + \
[colors.Green for g in range(143)] + \
[colors.Green for g in range(159)] + \
[colors.Green for g in range(175)] + \
[colors.Green for g in range(191)] + \
[colors.Green for g in range(207)] + \
def mptest(i, step):
return hue2rgb((i + step) % 255)