def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up DataSource objects for streaming from the Blackrock system.
For LFP streaming, the data is stored as it is received.
'''
from riglib import blackrock, source
if hasattr(self, "_neural_src_type") and hasattr(
self, "_neural_src_kwargs") and hasattr(
self, "_neural_src_system_type"):
# for testing only!
self.neurondata = self._neural_src_type(
self._neural_src_system_type, **self._neural_src_kwargs)
elif 'spike' in self.decoder.extractor_cls.feature_type: # e.g., 'spike_counts'
self.neurondata = source.DataSource(
blackrock.Spikes,
channels=self.blackrock_channels,
send_data_to_sink_manager=False)
elif 'lfp' in self.decoder.extractor_cls.feature_type: # e.g., 'lfp_power'
self.neurondata = source.MultiChanDataSource(
blackrock.LFP,
channels=self.blackrock_channels,
send_data_to_sink_manager=True)
else:
raise Exception(
"Unknown extractor class, unable to create data source object!"
)
from riglib import sink
sink.sinks.register(self.neurondata)
super(BlackrockData, self).init()
def test_rpc(self):
src = source.DataSource(MockDataSourceSystem,
send_data_to_sink_manager=False)
src.start()
self.assertEqual(src.procedure(), 42)
self.assertEqual(src.attr_to_test_access, 43)
def init(self):
sys_module = self.sys_module # e.g., riglib.plexon, riglib.blackrock
kwargs = dict(send_data_to_sink_manager=self.send_data_to_sink_manager,
channels=self.cortical_channels)
if hasattr(self, "_neural_src_type") and hasattr(
self, "_neural_src_kwargs") and hasattr(
self, "_neural_src_system_type"):
# for testing only!
self.neurondata = self._neural_src_type(
self._neural_src_system_type, **self._neural_src_kwargs)
elif 'spike' in self.decoder.extractor_cls.feature_type: # e.g., 'spike_counts'
self.neurondata = source.DataSource(sys_module.Spikes, **kwargs)
elif 'lfp' in self.decoder.extractor_cls.feature_type: # e.g., 'lfp_power'
self.neurondata = source.MultiChanDataSource(
sys_module.LFP, **kwargs)
else:
raise Exception(
"Unknown extractor class, unable to create data source object!"
)
if self.register_with_sink_manager:
sink_manager = sink.SinkManager.get_instance()
sink_manager.register(self.neurondata)
super(CorticalData, self).init()
def init(self):
from riglib import plexon, source
self.neurondata = source.DataSource(plexon.Spikes,
channels=self.plexon_channels)
try:
super(SpikeData, self).init()
except:
print "SpikeData: running without a task"
def init(self):
super().init()
self.sensor_src = source.DataSource(SimLFPSensor,
send_data_to_sink_manager=True,
port="/dev/cu.usbmodem1A121",
baudrate=115200,
name="sim_lfp")
sink.sinks.register(self.sensor_src)
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' creates a 4-channel DataSource, two channels for each joystick
-------
'''
from riglib import source, phidgets
System = phidgets.make(4, 1)
self.dualjoystick = source.DataSource(System)
super(DualJoystick, self).init()
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up the DataSource for interacting with the
motion tracker system and registers the source with the SinkRegister so that the data gets saved to file as it is collected.
'''
from riglib import source
src, mkw = self.source_class
self.motiondata = source.DataSource(src, **mkw)
from riglib import sink
self.sinks = sink.sinks
self.sinks.register(self.motiondata)
super(MotionData, self).init()
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up the DataSource for interacting with the
kinarm system and registers the source with the SinkRegister so that the data gets saved
to file as it is collected.
'''
from riglib import source
System = touch_data.TouchData
self.touch_data = source.DataSource(System)
from riglib import sink
sink_manager = sink.SinkManager.get_instance()
sink_manager.register(self.touch_data)
super(TouchDataFeature, self).init()
def init(self):
from riglib import blackrock, source
if 'spike' in extractor_cls.feature_type: # e.g., 'spike_counts'
self.neurondata = source.DataSource(blackrock.Spikes, channels=channels)
elif 'lfp' in extractor_cls.feature_type: # e.g., 'lfp_power'
self.neurondata = source.MultiChanDataSource(blackrock.LFP, channels=channels)
else:
raise Exception("Unknown extractor class, unable to create data source object!")
try:
super(BlackrockData, self).init()
except:
print "BlackrockData: running without a task"
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up the DataSource for interacting with the
kinarm system and registers the source with the SinkRegister so that the data gets saved
to file as it is collected.
'''
from riglib import source
from riglib import kinarmdata
System = Motion = kinarmdata.Kinarmdata
self.kinarmdata = source.DataSource(System)
from riglib import sink
self.sinks = sink.sinks
self.sinks.register(self.kinarmdata)
super(KinarmData, self).init()
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up the 'eyedata' DataSource and registers it with the
SinkRegister so that the data gets saved to file as it is collected.
'''
from riglib import source
from riglib import sink
sink_manager = sink.SinkManager.get_instance()
src, ekw = self.eye_source
#f = open('/home/helene/code/bmi3d/log/eyetracker', 'a')
self.eyedata = source.DataSource(src, **ekw)
sink_manager.register(self.eyedata)
f.write('instantiated source\n')
super(EyeData, self).init()
def test_source_polling2(self):
src = source.DataSource(MockDataSourceSystem2,
send_data_to_sink_manager=False)
src.start()
data_all = []
for k in range(60):
data = src.get()
data_all.append(data)
time.sleep(0.100)
src.stop()
del src
for data in data_all:
if len(data) > 0:
self.assertEqual((data[0] + len(data) - 1) % 255, data[-1])
def test_source_get_all(self):
"""source.get(all=True) should produce a growing output"""
src = source.DataSource(MockDataSourceSystem,
send_data_to_sink_manager=False)
src.start()
prev_len = -1
data_all = []
for k in range(60):
data = src.get(all=True)
data_all.append(data)
time.sleep(0.100)
self.assertTrue(len(data) >= prev_len)
prev_len = len(data)
src.stop()
del src
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up the DataSource for interacting with the
motion tracker system and registers the source with the SinkRegister so that the data gets saved to file as it is collected.
'''
# Start the fake natnet client
self.client = optitrack.PlaybackClient(self.filepath)
# Create a source to buffer the motion tracking data
from riglib import source
self.motiondata = source.DataSource(optitrack.make(optitrack.System, self.client, self.optitrack_feature, 1))
# Save to the sink
from riglib import sink
sink_manager = sink.SinkManager.get_instance()
sink_manager.register(self.motiondata)
super(Optitrack, self).init()
def init(self):
'''
Secondary init function. See riglib.experiment.Experiment.init()
Prior to starting the task, this 'init' sets up the DataSource for interacting with the
motion tracker system and registers the source with the SinkRegister so that the data gets saved to file as it is collected.
'''
# Start the natnet client and recording
import natnet
now = datetime.now()
local_path = "C:/Users/Orsborn Lab/Documents"
session = "OptiTrack/Session " + now.strftime("%Y-%m-%d")
take = now.strftime("Take %Y-%m-%d %H:%M:%S")
logger = Logger(take)
try:
client = natnet.Client.connect(logger=logger)
if self.saveid is not None:
take += " (%d)" % self.saveid
client.set_session(os.path.join(local_path, session))
client.set_take(take)
self.filename = os.path.join(session, take + '.tak')
client._send_command_and_wait("LiveMode")
time.sleep(0.1)
if client.start_recording():
self.optitrack_status = 'recording'
else:
self.optitrack_status = 'streaming'
except natnet.DiscoveryError:
self.optitrack_status = 'Optitrack couldn\'t be started, make sure Motive is open!'
client = optitrack.SimulatedClient()
self.client = client
# Create a source to buffer the motion tracking data
from riglib import source
self.motiondata = source.DataSource(optitrack.make(optitrack.System, self.client, self.optitrack_feature, 1))
# Save to the sink
from riglib import sink
sink_manager = sink.SinkManager.get_instance()
sink_manager.register(self.motiondata)
super().init()
def test_(self):
# register the source with the sink manager
sink_manager = sink.SinkManager.get_instance()
n_channels = 4
srcs = []
for k in range(n_channels):
src = source.DataSource(MockDataSourceSystem, send_data_to_sink_manager=True, name='counter%d' % k)
sink_manager.register(src)
srcs.append(src)
# start an HDF sink
sink_manager.start(HDFWriter, filename='test_high_rate_source_sink.hdf', mode='w')
# start the source
for src in srcs:
src.start()
# running for N seconds
runtime = 60
print("Letting the sources and sink run for %d sec..." % runtime)
time.sleep(runtime)
# stop source and sink
for src in srcs:
src.stop()
time.sleep(1)
sink_manager.stop()
# sleep to allow HDF file to be closed
time.sleep(2)
hdf = tables.open_file('test_high_rate_source_sink.hdf', mode='r')
for k in range(n_channels):
data = getattr(hdf.root, 'counter%d' % k)[:]['value']
self.assertTrue(check_counter_stream(data))
# self.assertTrue(check_counter_stream(hdf.root.counter1[:]['value']))
hdf.close()
def register_num_channels(self):
from riglib import source, phidgets, sink
System = phidgets.make(2, 1)
self.joystick = source.DataSource(System)
import time
from riglib import source
from riglib.plexon import Spikes
import pickle
ds = source.DataSource(Spikes)
ds.start()
time.sleep(0.1)
T = 1000
data = [None]*T
for k in range(T):
data[k] = ds.get()
data_k = data[k]
print data_k[data_k['chan'] == 232]
time.sleep(0.1)
ds.stop()
pickle.dump(data, open('plexstream_bmi_test.dat', 'wb'))
def register_num_channels(self):
from riglib import arduino_joystick, source, sink
System = arduino_joystick.make(2, 1)
self.joystick = source.DataSource(System)
import time
from riglib import source
from riglib.plexon import Spikes
ds = source.DataSource(Spikes, addr=('10.0.0.13', 6000), channels=[22])
ds.start()
time.sleep(10)
data = ds.get(True)
ds.stop()
print data
import time from riglib import source, blackrock channels = [5, 6, 7, 8] s = source.DataSource(blackrock.Spikes, channels=channels) s.start()
import time
import numpy as np
np.set_printoptions(suppress=True)
from riglib.sink import sinks, PrintSink
from riglib import source
from riglib import motiontracker, hdfwriter, nidaq, calibrations
Motion = motiontracker.make(8, motiontracker.AligningSystem)
datasource = source.DataSource(Motion)
datasource.filter = calibrations.AutoAlign()
#sinks.start(nidaq.SendRowByte)
#sinks.register(Motion)
sinks.start(hdfwriter.HDFWriter, filename="/tmp/test.hdf")
#sinks.start(PrintSink)
sinks.register(Motion)
datasource.start()
print "reading for 10 seconds..."
try:
while True:
print datasource.get()
time.sleep(0.01)
except KeyboardInterrupt:
pass
datasource.stop()
sinks.stop()
print "complete!"
def register_num_channels(self):
from riglib import source, arduino_imu
System = arduino_imu.make(6, 1)
self.arduino_imu = source.DataSource(System)
import time
from riglib import source
from riglib.ecube import Broadband, make
import numpy as np
DURATION = 5
ecube = make(Broadband, headstages=[7], channels=[(1,1)])
ds = source.DataSource(ecube)
ds.start()
time.sleep(DURATION)
data = ds.get()
ds.stop()
print("Received {} packets in {} seconds ({} Hz)".format(data.shape[0], DURATION, data.shape[0]/DURATION))
ts = [d['timestamp'] for d in data]
print("First timestamp: {} ns ({:.5f} s)\tLast timestamp {} ns ({:.5f} s)".format(
ts[0], ts[0]/1e9, ts[-1], ts[-1]/1e9
))
duration = (ts[-1]-ts[0])/1e9
samples = [d['data'].shape[0] for d in data]
print("Calculated duration: {:.5f} s, at {:.2f} Hz packet frequency and {} Hz sampling rate".format(
duration, data.shape[0]/duration, np.sum(samples[:-1])/duration))
print("For reference, the ecube datasource is meant to have a sampling rate of {:.2f} Hz".format(ecube.update_freq))