def test_FileSinkTimecode(self):
filename = self._tempfileName('source_timecode')
# Create a source with a known start time
time_in = time.time()
source = sb.DataSource(dataFormat='float', startTime=time_in)
sink = sb.FileSink(filename, midasFile=True)
source.connect(sink)
sb.start()
# The data isn't important, other than to cause a pushPacket with the
# initial timestamp
source.push(range(16), EOS=True)
sink.waitForEOS()
# Read back the timecode from the output file
hdr = bluefile.readheader(filename)
time_out = bluefile_helpers.j1950_to_unix(hdr['timecode'])
self.assertAlmostEqual(time_in, time_out, 5)
def _test_FileSink(self, format):
filename = self._tempfileName('sink_%s' % format)
complexData = format.startswith('C')
typecode = format[1]
dataFormat, dataType = self.TYPEMAP[typecode]
indata = [dataType(x) for x in xrange(16)]
source = sb.DataSource(dataFormat=dataFormat)
sink = sb.FileSink(filename, midasFile=True)
source.connect(sink)
sb.start()
source.push(indata, complexData=complexData, EOS=True)
sink.waitForEOS()
hdr, outdata = bluefile.read(filename)
self.assertEqual(hdr['format'], format)
if complexData:
if dataFormat in ('double', 'float'):
outdata = list(self._flatten(outdata))
else:
outdata = outdata.flatten()
self.assertTrue(numpy.array_equal(indata, outdata), msg="Format '%s' %s != %s" % (format, indata, outdata))
def _test_FileSinkOctet(self, format):
filename = self._tempfileName('sink_octet_' + format.lower())
source = sb.DataSource(dataFormat='octet')
sink = sb.FileSink(filename, midasFile=True)
source.connect(sink)
sb.start()
# Push a 256-element ramp (the maximum range of octet)
indata = range(256)
isComplex = bool(format[0] == 'C')
source.push(indata, complexData=isComplex, EOS=True)
sink.waitForEOS()
# Check the BLUE file format matches
hdr, data = bluefile.read(filename)
self.assertEqual(format, hdr['format'])
# Have to "cast" the data to unsigned 8-bit, since 'B' is a signed type
# (as are all BLUE formats), and flattening the array re-interleaves
# complex data
outdata = data.view(numpy.uint8).reshape(-1)
self.assertTrue(numpy.array_equal(indata, outdata),
msg="Format '%s' %s != %s" % (format, indata, outdata))
def _test_FileSinkType2000(self, format, subsize):
filename = self._tempfileName('sink_2000_%s' % format)
complexData = format.startswith('C')
typecode = format[1]
dataFormat, dataType = self.TYPEMAP[typecode]
sink = sb.FileSink(filename, midasFile=True)
sb.start()
# Manually create our own SRI, because DataSource doesn't support
# setting the Y-axis fields
sri = bulkio.sri.create('test_stream')
if complexData:
sri.mode = 1
else:
sri.mode = 0
sri.subsize = subsize
sri.ystart = subsize / -2.0
sri.ydelta = 1.0
sri.yunits = 3
# Generate test data; unlike the type 1000 tests, we have to generate
# input data compatible with CORBA because we're bypassing DataSource
frames = 4
samples = subsize * frames
if complexData:
samples *= 2
if dataFormat == 'char':
indata = numpy.arange(samples, dtype=numpy.int8)
packet = indata.tostring()
else:
indata = [dataType(x) for x in xrange(samples)]
packet = indata
# Push the SRI and data directly to the sink's port
port = sink.getPort(dataFormat + 'In')
port.pushSRI(sri)
port.pushPacket(packet, bulkio.timestamp.now(), True, sri.streamID)
sink.waitForEOS()
hdr, outdata = bluefile.read(filename)
self.assertEqual(hdr['format'], format)
self.assertEqual(hdr['subsize'], subsize)
self.assertEqual(hdr['ystart'], sri.ystart)
self.assertEqual(hdr['ydelta'], sri.ydelta)
self.assertEqual(hdr['yunits'], sri.yunits)
self.assertEqual(len(outdata), frames)
if complexData:
if dataFormat == 'float':
indata = numpy.array(indata,
dtype=numpy.float32).view(numpy.complex64)
indata = numpy.reshape(indata, (-1, subsize))
elif dataFormat == 'double':
indata = numpy.array(indata, dtype=numpy.float64).view(
numpy.complex128)
indata = numpy.reshape(indata, (-1, subsize))
else:
indata = numpy.reshape(indata, (-1, subsize, 2))
else:
indata = numpy.reshape(indata, (-1, subsize))
self.assertTrue(numpy.array_equal(indata, outdata),
msg="Format '%s' %s != %s" % (format, indata, outdata))
f.write('sink.network_settings.address = ip_address\n')
sink.network_settings.enable = True
f.write('sink.network_settings.enable = True\n')
sink.VITA49Encapsulation.use_vrl_frames = True
f.write('sink.VITA49Encapsulation.useVRLFrames = True\n')
sink.VITA49Encapsulation.use_crc = False
f.write('sink.VITA49Encapsulation.useCRC = True\n')
sink.numberOfBuffers = 200
f.write('sink.numberOfBuffers = 200\n')
sink.advanced_configuration.endian_representation = 2
f.write('sink.advanced_configuration.endian_representation = 2\n')
sink.advanced_configuration.max_payload_size = 1428
f.write('sink.advanced_configuration.max_payload_size = 1500\n\n')
sink.VITA49IFContextPacket.class_identifier = "DEFAULT"
sink.VITA49IFContextPacket.device_identifier = "FF-FF-FA:1333"
output_result = sb.FileSink('results.tmp')
source.connect(output_result, providesPortName='shortIn')
#sink.api()
#time.sleep(100)
f.write('\n********** Starting Components **********\n')
sb.start()
f.write('Components started\n')
input_file = sb.FileSource('golden.tmp', dataFormat='short')
kw = sb.SRIKeyword("COL_BW", 20000000.0, 'double')
kw1 = sb.SRIKeyword("COL_IF_FREQUENCY_OFFSET", 70000000.0, 'double')
kw2 = sb.SRIKeyword("COL_RF", 155500000.0, 'double')
kw3 = sb.SRIKeyword("COL_RF_OFFSET", 20.0, 'double')
kw5 = sb.SRIKeyword("COL_REFERENCE_LEVEL", 10.2969, 'float')
kw6 = sb.SRIKeyword("COL_GAIN", 10.0, 'float')
def main(argv):
sadfile = ''
inputfile = ''
dataformat = ''
samplerate = ''
iscomplex = False
outputfile = ''
try:
opts, args = getopt.getopt(argv, "hs:i:f:r:co:", [
"sadfile=", "ifile=", "dataformat=", "samplerate=", "complex",
"ofile="
])
except getopt.GetoptError:
print 'runWaveform.py -s <sadfile> -i <inputfile> -f <dataFormat> -r <sampleRate> -c -o <outputfile>'
sys.exit(2)
for opt, arg in opts:
#print 'evaluating opt - ',opt,' arg - ',arg
if opt == '-h':
print 'runWaveform.py -s <sadfile> -i <inputfile> -f <dataFormat> -r <sampleRate> -c o <outputfile>'
sys.exit()
elif opt in ("-s", "--sadfile"):
sadfile = arg
elif opt in ("-i", "--ifile"):
inputfile = arg
elif opt in ("-f", "--dataformat"):
dataformat = arg
elif opt in ("-r", "--samplerate"):
samplerate = arg
elif opt in ("-c", "--complex"):
iscomplex = True
elif opt in ("-o", "--ofile"):
outputfile = arg
print 'setting outputfile', outputfile
print 'Processing ', inputfile, " through waveform - ", sadfile
sadFile = open(sadfile)
sadFileString = sadFile.read()
usesPort = ''
usesComponent = ''
providesPort = ''
providesComponent = ''
sadXML = parsers.sad.parseString(sadFileString)
if sadXML.get_externalports():
for port in sadXML.get_externalports().get_port():
if port.get_usesidentifier():
usesPort = port.get_usesidentifier()
usesComponent = port.get_componentinstantiationref()
elif port.get_providesidentifier():
providesPort = port.get_providesidentifier()
providesComponent = port.get_componentinstantiationref()
if not usesPort and not providesPort:
print 'Need uses and provides external ports'
sys.exit()
else:
print 'No external ports'
sys.exit()
print usesPort, providesPort
if not usesPort or not providesPort:
print 'Require external uses & provides port'
sys.exit()
sb.loadSADFile(sadfile)
fileSource = sb.FileSource(filename=inputfile,
dataFormat=dataformat,
sampleRate=samplerate)
fileSink = sb.FileSink(filename=outputfile)
#FIXME check file type matches external port
fileSource.connect(sb.getComponent(providesComponent.get_refid()),
providesPortName=providesPort)
sb.getComponent(usesComponent.get_refid()).connect(fileSink,
usesPortName=usesPort)
sb.start()
fileSink.waitForEOS()
sb.stop()
sb.release()
def listen_waveform_ports(domain, waveform_ports):
"""Listen to message events on specific waveform ports on domain
Parameters
----------
domain : str
The Redhawk domain to connect
waveform_ports : list of tuples
This will be a list of ports. Each tuple is a combination of
(WAVEFORM_NAME, PORT_NAME, PORT_DATA_TYPE OUTPUT_FILE)
PORT_DATA_TYPE should match an input port of the sb.FileSink
{"floatIn", "shortIn", "octetIn"}
Returns
-------
my_msgs : dict
Dictionary where keys is the combo of waveform + port name
The value will be the recorded messages.
"""
# -------------- connect and get list of waveforms --------------------
dom = redhawk.attach(domain)
waveforms = dom.applications
# ------------------------ prepare variables --------------------------
my_sink_list = {}
# add a message sink per port
for (c_name, c_port, c_type, c_file) in waveform_ports:
# enforce strings
c_name = str(c_name)
c_port = str(c_port)
c_type = str(c_type)
c_file = str(c_file)
print("Name = %s, Port = %s" % (str(c_name), str(c_port)))
# select waveform from the list
c_wave = find_waveform(waveforms, c_name)
try:
# get the port of interest
port_inst = c_wave.getPort(c_port)
# --------------- connect to message sink ---------------------
f_sink = sb.FileSink(filename=c_file, midasFile=True)
port_inst.connectPort(\
f_sink.getPort(c_type),
"conn_"+ str(uuid.uuid1()))
f_sink.start()
# track sink
key = c_name + ":" + c_port
my_sink_list[key] = f_sink
except:
print("Failed to connect to port:\t%s:%s" % (c_name, c_port))
# ----------------------- user prompt to end --------------------------
if len(my_sink_list) > 0:
prompt("Hit enter to end...")
else:
print("No connections set...exiting")
# -------------------------- stop and release -------------------------
for key in my_sink_list.keys():
try:
my_sink_list[key].stop()
my_sink_list[key].releaseObject()
except Exception as e:
print("Failed to release sink: %s" % str(e))