def DMXsent(self, IP, universe, Brightness):
#universe = self.m_spinCtrlUniverse.GetValue()
#startaddress = self.m_spinCtrlStartAddress.GetValue()
#channel = self.m_textCtrlChannel.GetValue()
#IP = self.m_textCtrlIP.GetValue()
#judge procesing platform
while not self.m_radioBox1.GetSelection():
#Brompton selected
sender = sacn.sACNsender()
sender.start()
sender.activate_output(universe)
sender[universe].destination = IP
sender[universe].dmx_data = (255, 255, 255, Brightness)
time.sleep(0.5)
sender.stop()
break
else:
#MVR selcted
sender = sacn.sACNsender()
sender.start()
sender.activate_output(universe)
sender[universe].destination = IP
sender[universe].dmx_data = (0, 0, Brightness)
time.sleep(0.5)
sender.stop()
print(sender[universe].destination)
print(Brightness)
def test_constructor():
cid = tuple(range(0, 16))
source_name = 'test'
socket = SenderSocketTest()
# test default values for constructor
sender = sacn.sACNsender(socket=socket)
assert sender._sender_handler._source_name == 'default source name'
assert len(sender._sender_handler._CID) == 16
assert sender.universeDiscovery is True
assert sender._sync_universe == 63999
assert sender.manual_flush is False
# test explicit values for constructor
bind_address = 'test_address'
bind_port = 1234
fps = 40
universe_discovery = False
sync_universe = 4567
sender = sacn.sACNsender(bind_address, bind_port, source_name, cid, fps,
universe_discovery, sync_universe, socket)
assert sender._sender_handler._source_name == source_name
assert sender._sender_handler._CID == cid
assert sender.universeDiscovery == universe_discovery
assert sender._sync_universe == sync_universe
assert sender.manual_flush is False
def test_getitem():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
assert sender[1] is None
sender.activate_output(1)
assert sender[1] == sender._outputs[1]
def __init__(self, config=[], cache=False, quiet=False, debug=False):
self.running = False
if quiet:
verbose_level = logging.CRITICAL
else:
verbose_level = logging.DEBUG if debug else logging.INFO
self.__quiet = quiet
self.__debug = debug
self.__config = config
self.__should_cache = cache
self.__logger = logging.getLogger(__class__.__name__)
self.__logger.setLevel(verbose_level)
self.__animation = None
self.__step = 0
self.__decay = 0
self.__sonoff = Sonoff(broker=MQTT_BROKER_HOST,
device="desktop",
quiet=self.__quiet,
debug=self.__debug)
self.__cache_path = join(dirname(dirname(abspath(__file__))), "cache")
self.__placeholder = np.array([0] * 512)
self.__holiday_checker = HolidayChecker(quiet=quiet, debug=debug)
for x in range(0, len(self.__config)):
if not self.__config[x]['sync']:
continue
self.__config[x]['universes'] = ceil(self.__config[x]['channels'] /
DEFAULT_STRIP_PIXELS)
self.__config[x]['sender'] = sacn.sACNsender(fps=1500)
self.__config[x]['queue'] = None
self.__config[x]['thread'] = None
# Effect cache
self.__config[x]['matrix'] = None
def __setup_devices(self):
for x in range(0, len(self.__config)):
if not self.__config[x]['sync']:
continue
self.__config[x]['sender'] = sacn.sACNsender(fps=800)
self.__config[x]['sender'].start()
self.__config[x]['sender'].manual_flush = True
self.__config[x]['queue'] = queue.Queue()
self.__restart_worker(x)
first_send = False
while not first_send:
try:
for u in range(1, self.__config[x]['universes'] + 1):
self.__config[x]['sender'].activate_output(u)
self.__config[x]['sender'][u].multicast = False
self.__config[x]['sender'][
u].destination = self.__config[x]['ip']
self.__config[x]['sender'][u].dmx_data = bytearray(
[0] * 512)
self.__config[x]['sender'].flush()
first_send = True
except:
pass
sleep(0.1)
self.__logger.debug(
f"Detected: LedStrip<ip: {self.__config[x]['ip']}, universes: {self.__config[x]['universes']}, leds: {self.__config[x]['channels']}, name: {self.__config[x]['name']}>"
)
def test_universe_discovery_setting():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
assert sender.universeDiscovery is True
assert sender._sender_handler.universe_discovery is True
sender.universeDiscovery = False
assert sender.universeDiscovery is False
assert sender._sender_handler.universe_discovery is False
def __init__(self, bind_address: str, brightness: float = 1.0):
self.brightness = brightness
self.sender = sacn.sACNsender(
bind_address=bind_address,
universeDiscovery=False,
)
# dict of DMX universe to a list of DMX channels
self.universes = {}
def test_manual_flush_setting():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
assert sender.manual_flush is False
assert sender._sender_handler.manual_flush is False
sender.manual_flush = True
assert sender.manual_flush is True
assert sender._sender_handler.manual_flush is True
def __init__(self):
self.sender = sacn.sACNsender()
self.sender.start(bind_address=config.bind_address)
self.queue = []
self.devices = {}
self.thread_running = True
self.thread = threading.Thread(target=self.process_queue_loop,
args=(config.mspt, ))
def __init__(self, bind_address, num_hexes, brightness=1.0):
self.num_hexes = num_hexes
self.brightness = brightness
self.sender = sacn.sACNsender(
bind_address=bind_address,
universeDiscovery=True,
)
self.leds = {} # { h: 512 ints (3 for each LED) }
def reconnect(self):
"""
Recreate and set up the sender
"""
self.sender = sacn.sACNsender()
self.sender.start()
self.sender.activate_output(self.universe)
self.sender[self.universe].destination = self.ip
self.is_connected = True
def test_output_preview_data():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
# test default
assert sender[1].preview_data is False
# test setting and retriving the value
test = True
sender[1].preview_data = test
assert sender[1].preview_data == test
def test_output_priority():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
# test default
assert sender[1].priority == 100
# test setting and retriving the value
test = 200
sender[1].priority = test
assert sender[1].priority == test
def test_output_multicast():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
# test default
assert sender[1].multicast is False
# test setting and retriving the value
test = True
sender[1].multicast = test
assert sender[1].multicast == test
def test_output_destination():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
# test default
assert sender[1].destination == '127.0.0.1'
# test setting and retriving the value
test = 'test'
sender[1].destination = test
assert sender[1].destination == test
def test_move_universe():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
output = sender._outputs[1]
assert list(sender._outputs.keys()) == [1]
assert sender._outputs[1] == output
sender.move_universe(1, 2)
assert list(sender._outputs.keys()) == [2]
assert sender._outputs[2] == output
def __init__(self, max_dmx, model_json=None):
# XXX any way to check if this is a valid connection?
self.sender = sacn.sACNsender(
bind_address="192.168.1.210", universeDiscovery=False
) # Must supply an IP address to bind to that is in the same subnet as the devices routiung the universes. Might haave to assign a second IP to the eth adapter to get this to work (this is what I had to do on my mac)
self.sender.start()
self.PIXEL_MAP = None
self.leds = {
} # dictionary which will hold an array of 512 int's for each universe, universes are keys to the arrays.
self._map_leds(model_json)
def test_output_ttl():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
# test default
assert sender[1].ttl == 8
# test setting and retriving the value
test = 16
sender[1].ttl = test
assert sender[1].ttl == test
def test_output_dmx_data():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
sender.activate_output(1)
# test default
assert sender[1].dmx_data == tuple([0] * 512)
# test setting and retriving the value
test = tuple([x % 256 for x in range(0, 512)])
sender[1].dmx_data = test
assert sender[1].dmx_data == test
def create_sender(pixel_strips: List[PixelStrip], **kwargs):
sender = sacn.sACNsender(**kwargs) # provide an IP-Address to bind to if you are using Windows and want to use multicast
sender.start() # start the sending thread
for i, pixel_strip in enumerate(pixel_strips):
universe = pixel_strip.universe
sender.activate_output(universe)
# multicast is not working for whatever reason
sender[universe].multicast = False
sender[universe].destination = pixel_strip.strip_addr
return sender
def test_stop():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
assert socket.stop_called is False
sender.stop()
assert socket.stop_called is True
# a second time is not allowed to throw an exception
assert socket.stop_called is True
sender.stop()
assert socket.stop_called is True
def startsACN(universeModel, pixelModel, maxUniverses, consoleEnableChannel,
unicastIP, priority):
global receiver, sender, running, consoleEnableCh, unicastdest
consoleEnableCh = consoleEnableChannel
unicastdest = unicastIP
receiver = sacn.sACNreceiver()
sender = sacn.sACNsender()
receiver.start()
sender.start()
createUniverses(universeModel, maxUniverses, priority)
createMap(pixelModel)
running = True
def __init__(self, config):
super().__init__(config)
self.outputs.append(ledStrip('flag', '10.10.10.71', 50, 2))
self.outputs.append(ledStrip('shelves', '10.10.10.72', 46, 3))
self.outputs.append(ledStrip('backwall', '10.10.10.73', 50, 4))
self.sacn = sacn.sACNsender()
self.sacn.start()
self.pink = True
self.sacn.manual_flush = True
for ls in self.outputs:
print("Activating led strip named {}".format(ls.name))
self.sacn.activate_output(ls.universe)
self.sacn[ls.universe].destination = ls.ip
def test_get_active_outputs():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
# none active
assert sender.get_active_outputs() == tuple([])
# one active
sender.activate_output(1)
assert sender.get_active_outputs() == tuple([1])
# two active
sender.activate_output(2)
assert sender.get_active_outputs() == tuple([1, 2])
def stable(color):
sender = sacn.sACNsender()
sender.start()
if color == "white":
dmxcolor = (255,147,41)
singlecolor = 1
elif color == "green":
dmxcolor = (0,255,0)
singlecolor = 1
elif color == "red":
dmxcolor = (255,0,0)
singlecolor = 1
elif color == "blue":
dmxcolor = (0,0,255)
singlecolor = 1
elif color == "redgreen":
dmxcolor = (0,255,0,255,0,0)
singlecolor = 0
else:
usage()
sender.stop()
sys.exit()
for universe in range(startuniverse,(enduniverse)+1):
sender.activate_output(universe)
sender[universe].destination = dmxreceiver
for pixel in range(0, len(pixels)):
pixeltype = pixels[pixel][0]
universe = pixels[pixel][1]
numpixels = pixels[pixel][2]
if singlecolor == 1:
dmxdata = (dmxcolor * int(numpixels))
else:
dmxdata = (dmxcolor * int(numpixels/2))
if debug == 1:
print('Pixeltype: %s, Universe: %s, Numpixels: %s, Color: %s, DMXColor: %s' % (pixeltype,universe,numpixels,color, dmxcolor))
sender[universe].dmx_data = dmxdata
sender.manual_flush = False
time.sleep(1)
sender.stop()
sys.exit()
def __init__(self,
start_universe=1,
start_channel=1,
channel_count=3,
universe_size=512,
fps=30,
ip='192.168.1.180'):
"""Initialize object for communicating with as E1.31 capable device.
Parameters
----------
start_universe: int, optional
The start universe for the strip
start_channel: int, optional
The state channel offset within the universe
channel_count: int, optional
The total number of channels for the device. Typically this will
be 3 * N_PIXELS as you need a sperate channel for the red, green,
and blue components
universe_size: int, optional
The number of channels in each universe. This should pretty much
never be changed unless using a controller that only support 510
channels.
ip: str, optional
The IP address of a E1.31 capable device on the network.
fps: int, optional
The frequency in which to flush the DMX buffer out. This does
not need to align with the actually processing rate. Running
the processing at 60fps and flusing at 30fps provides a pretty
good balance.
"""
import sacn
self._ip = ip
self._start_universe = start_universe
self._start_channel = start_channel
self._channel_count = channel_count
self._universe_size = universe_size
self._sender = sacn.sACNsender()
self._sender._fps = fps
self._sender.start()
self._stop_universe = start_universe + round(0.5 + (
(start_channel + channel_count) / universe_size))
for universe in range(self._start_universe, self._stop_universe):
self._sender.activate_output(universe)
self._sender[universe].destination = ip
self._sender[universe].multicast = False
def test_activate_output():
socket = SenderSocketTest()
sender = sacn.sACNsender(socket=socket)
# start with no universes active
assert list(sender._outputs.keys()) == []
# activate one universe
sender.activate_output(1)
assert list(sender._outputs.keys()) == [1]
# activate another universe
sender.activate_output(63999)
assert list(sender._outputs.keys()) == [1, 63999]
# check that a universe can not be enabled twice
sender.activate_output(1)
assert list(sender._outputs.keys()) == [1, 63999]
def start_sequence(**kwargs):
"""
Main sequence
"""
dmx = BuildDMX(pixels=kwargs['pixels'],
fps=kwargs['fps'],
brightness=kwargs['brightness'],
multi=kwargs['multi'],
rr=kwargs['rr'],
rl=kwargs['rl'],
ip=kwargs['ip'])
previous_dmx: dict = {}
recording_device = sc.get_microphone(kwargs['deviceid'],
include_loopback=True)
sender = sacn.sACNsender()
try:
i = 0
while True:
data = recording_device.record(samplerate=kwargs['sampleRate'],
numframes=kwargs['defaultframes'],
blocksize=256)
if data is not None:
(dmx_data, previous_dmx) = dmx.output(data, previous_dmx)
if not sender.get_active_outputs():
if any(map(lambda ele: ele != 0, dmx_data)):
sender.activate_output(1)
sender[1].destination = kwargs['ip']
sender.start()
else:
sender[1].dmx_data = dmx_data
if not any(map(lambda ele: ele != 0, dmx_data)):
# Don't deactivate too quickly. Wait a few seconds.
if i >= 500:
sender.deactivate_output(1)
sender.stop()
i = 0
i += 1
terminal_led(dmx_data)
time.sleep(0.01)
except KeyboardInterrupt:
sender.stop()
cursor.show()
def activate(self):
if self._config["ip_address"].lower() == "multicast":
multicast = True
else:
multicast = False
if self._sacn:
raise Exception("sACN sender already started.")
if multicast is False:
self.device_ip = resolve_destination(self._config["ip_address"])
if not self.device_ip:
_LOGGER.warning(
f"Cannot resolve destination {self._config['ip_address']}, aborting device {self.name} activation. Make sure the IP/hostname is correct and device is online."
)
return
if wled_identifier(self.device_ip, self.name):
self.WLEDReceiver = True
self.wled_state = wled_power_state(self.device_ip, self.name)
if self.wled_state is False:
turn_wled_on(self.device_ip, self.name)
# Configure sACN and start the dedicated thread to flush the buffer
# Some variables are immutable and must be called here
self._sacn = sacn.sACNsender(source_name=self.name)
for universe in range(self._config["universe"],
self._config["universe_end"] + 1):
_LOGGER.info(f"sACN activating universe {universe}")
self._sacn.activate_output(universe)
self._sacn[universe].priority = self._config[
"e131_Packet_Priority"]
if self._config["ip_address"] == "multicast":
self._sacn[universe].multicast = True
else:
self._sacn[universe].destination = self.device_ip
self._sacn[universe].multicast = False
self._sacn._fps = self._config["refresh_rate"]
self._sacn.start()
self._sacn.manual_flush = True
_LOGGER.info("sACN sender started.")
super().activate()
def activate(self):
if self._sacn:
raise Exception('sACN sender already started.')
# Configure sACN and start the dedicated thread to flush the buffer
self._sacn = sacn.sACNsender()
for universe in range(self._config['universe'],
self._config['universe_end'] + 1):
_LOGGER.info("sACN activating universe {}".format(universe))
self._sacn.activate_output(universe)
if (self._config['ip_address'] == None):
self._sacn[universe].multicast = True
else:
self._sacn[universe].destination = self._config['ip_address']
self._sacn[universe].multicast = False
#self._sacn.fps = 60
self._sacn.start()
_LOGGER.info("sACN sender started.")
super().activate()
#!/usr/bin/env python3
# From https://github.com/Hundemeier/sacn
import sacn
import time
import sys
color = [0, 0, 0] # Black by default
if len(sys.argv) == 4:
color[0] = int(sys.argv[1])
color[1] = int(sys.argv[2])
color[2] = int(sys.argv[3])
print("Color: ", color[0], " ", color[1], " ", color[2])
channels = 510 # number of channels per universe
maxUniv = 74 # Total numbers of universes
sender = sacn.sACNsender() # provide an IP-Address to bind to if you are using Windows and want to use multicast
sender.start() # start the sending thread
# sender[univ].multicast = False # set multicast to True
# Keep in mind that if multicast is on, unicast is not used
for univ in range(1, maxUniv):
sender.activate_output(univ) # start sending out data in the 1st universe
sender[univ].destination = "fpp" # or provide unicast information.
for count in range(1, 10):
for univ in range(1, maxUniv):
# sender[univ].dmx_data = (0, 255, 0, 255, 0, 0, 255, 255, 255) # some test DMX data
row = []
for i in range(0, 510, 3):
row.append(color[0])
row.append(color[1])
