class _OsmoSDRTXDriver(ExportedState, gr.hier_block2):
def __init__(self,
osmo_device,
rx,
name,
tuning,
sample_rate):
gr.hier_block2.__init__(
self, b'TX ' + str(name),
gr.io_signature(1, 1, gr.sizeof_gr_complex),
gr.io_signature(0, 0, 0))
self.__osmo_device = osmo_device
self.__rx_driver = rx
self.__tuning = tuning
self.__signal_type = SignalType(
kind='IQ',
sample_rate=sample_rate)
self.__sink = None
self.__placeholder = blocks.null_sink(gr.sizeof_gr_complex)
self.__state_while_inactive = {}
self.connect(self, self.__placeholder)
# implement ITXDriver
def get_input_type(self):
return self.__signal_type
# implement ITXDriver
def close(self):
self.disconnect_all()
self.__rx_driver = None
self.__sink = None
self.__tuning = None
# implement ITXDriver
def notify_reconnecting_or_restarting(self):
pass
# implement ITXDriver
def set_transmitting(self, value, midpoint_hook):
self.disconnect_all()
if value:
self.__rx_driver._stop_rx()
midpoint_hook()
self.__sink = osmosdr.sink(self.__osmo_device)
self.__sink.set_sample_rate(self.__signal_type.get_sample_rate())
self.__tuning.set_block(self.__sink)
self.connect(self, self.__sink)
self.state_from_json(self.__state_while_inactive)
else:
self.__state_while_inactive = self.state_to_json()
self.__tuning.set_block(None)
self.__sink = None
self.connect(self, self.__placeholder)
midpoint_hook()
self.__rx_driver._start_rx()
class _OsmoSDRRXDriver(ExportedState, gr.hier_block2):
# Note: Docs for gr-osmosdr are in comments at gr-osmosdr/lib/source_iface.h
def __init__(self,
osmo_device,
source,
profile,
name,
tuning):
gr.hier_block2.__init__(
self, b'RX ' + str(name),
gr.io_signature(0, 0, 0),
gr.io_signature(1, 1, gr.sizeof_gr_complex * 1),
)
self.__osmo_device = osmo_device
self.__source = source
self.__profile = profile
self.__name = name
self.__tuning = tuning
self.__antenna_type = EnumT({unicode(name): unicode(name) for name in self.__source.get_antennas()}, strict=True)
self.connect(self.__source, self)
self.__gains = Gains(source, self)
# State of the source that there are no getters for, so we must keep our own copy of
self.__track_dc_offset_mode = DCOffsetOff
self.__track_iq_balance_mode = IQBalanceOff
source.set_dc_offset_mode(self.__track_dc_offset_mode, ch)
source.set_iq_balance_mode(self.__track_iq_balance_mode, ch)
# Blocks
self.__state_while_inactive = {}
self.__placeholder = blocks.vector_source_c([])
sample_rate = float(source.get_sample_rate())
self.__signal_type = SignalType(
kind='IQ',
sample_rate=sample_rate)
self.__usable_bandwidth = tuning.calc_usable_bandwidth(sample_rate)
@exported_value(type=SignalType, changes='never')
def get_output_type(self):
return self.__signal_type
# implement IRXDriver
def get_tune_delay(self):
return self.__profile.tune_delay
# implement IRXDriver
def get_usable_bandwidth(self):
return self.__usable_bandwidth
# implement IRXDriver
def close(self):
self._stop_rx()
self.__tuning = None
@exported_value(
type=QuantityT(unit=units.ppm),
changes='this_setter',
label='Freq.corr.')
def get_correction_ppm(self):
return self.__tuning.get_correction_ppm()
@setter
def set_correction_ppm(self, value):
self.__tuning.set_correction_ppm(value)
@exported_value(type=ReferenceT(), changes='never')
def get_gains(self):
return self.__gains
@exported_value(
type_fn=lambda self: convert_osmosdr_range(
self.__source.get_gain_range(ch), unit=units.dB, strict=False),
changes='this_setter',
label='Gain')
def get_gain(self):
if self.__source is None: return 0.0
return self.__source.get_gain(ch)
@setter
def set_gain(self, value):
self.__source.set_gain(float(value), ch)
# The single gain and individual-stage gain controls have an unspecified relationship to each other. Thus, changing one must poll the other.
self.__gains.state_changed()
@exported_value(
type_fn=lambda self: bool if self.__profile.agc else ConstantT(False),
changes='this_setter',
label='AGC on')
def get_agc(self):
if self.__source is None: return False
return bool(self.__source.get_gain_mode(ch))
@setter
def set_agc(self, value):
self.__source.set_gain_mode(bool(value), ch)
@exported_value(
type_fn=lambda self: self.__antenna_type,
changes='this_setter',
label='Antenna')
def get_antenna(self):
if self.__source is None: return ''
return unicode(self.__source.get_antenna(ch))
@setter
def set_antenna(self, value):
# TODO we should have a provision for restricting antenna selection when transmit is possible to avoid hardware damage
self.__source.set_antenna(str(self.__antenna_type(value)), ch)
# Note: dc_offset_mode has a 'manual' mode we are not yet exposing, which is why the internal tracking is an enum integer but the exported value is a boolean
@exported_value(
type_fn=lambda self: bool if self.__profile.dc_cancel else ConstantT(False),
changes='this_setter',
label='Use DC cancellation')
def get_dc_cancel(self):
return bool(self.__track_dc_offset_mode)
@setter
def set_dc_cancel(self, value):
if value:
mode = DCOffsetAutomatic
else:
mode = DCOffsetOff
self.__source.set_dc_offset_mode(mode, ch)
self.__track_dc_offset_mode = mode
# Note: iq_balance_mode has a 'manual' mode we are not yet exposing, which is why the internal tracking is an enum integer but the exported value is a boolean
@exported_value(type=bool, # TODO: detect gr-iqbal
changes='this_setter',
label='Use IQ balancer')
def get_iq_balance(self):
return bool(self.__track_iq_balance_mode)
@setter
def set_iq_balance(self, value):
if value:
mode = IQBalanceAutomatic
else:
mode = IQBalanceOff
self.__source.set_iq_balance_mode(mode, ch)
self.__track_iq_balance_mode = mode
# add_zero because zero means automatic setting based on sample rate.
# TODO: Display automaticness in the UI rather than having a zero value.
@exported_value(
type_fn=lambda self: convert_osmosdr_range(
self.__source.get_bandwidth_range(ch), unit=units.Hz, add_zero=True),
changes='this_setter',
label='Analog bandwidth',
description='Bandwidth of the analog antialiasing filter.')
def get_bandwidth(self):
if self.__source is None: return 0.0
return self.__source.get_bandwidth(ch)
@setter
def set_bandwidth(self, value):
self.__source.set_bandwidth(float(value), ch)
def notify_reconnecting_or_restarting(self):
pass
# link to tx driver
def _stop_rx(self):
self.disconnect_all()
self.__state_while_inactive = self.state_to_json()
self.__tuning.set_block(None)
self.__gains.close()
self.__source = None
self.connect(self.__placeholder, self)
# link to tx driver
def _start_rx(self):
self.disconnect_all()
self.__source = osmosdr.source('numchan=1 ' + self.__osmo_device)
self.__source.set_sample_rate(self.__signal_type.get_sample_rate())
self.__tuning.set_block(self.__source)
self.__gains = Gains(self.__source, self)
self.connect(self.__source, self)
self.state_from_json(self.__state_while_inactive)
class _OsmoSDRRXDriver(ExportedState, gr.hier_block2):
implements(IRXDriver)
# Note: Docs for gr-osmosdr are in comments at gr-osmosdr/lib/source_iface.h
def __init__(self,
osmo_device,
source,
profile,
name,
tuning):
gr.hier_block2.__init__(
self, 'RX ' + name,
gr.io_signature(0, 0, 0),
gr.io_signature(1, 1, gr.sizeof_gr_complex * 1),
)
self.__osmo_device = osmo_device
self.__source = source
self.__profile = profile
self.__name = name
self.__tuning = tuning
self.connect(self.__source, self)
self.__gains = Gains(source)
# Misc state
self.dc_state = DCOffsetOff
self.iq_state = IQBalanceOff
source.set_dc_offset_mode(self.dc_state, ch) # no getter, set to known state
source.set_iq_balance_mode(self.iq_state, ch) # no getter, set to known state
# Blocks
self.__state_while_inactive = {}
self.__placeholder = blocks.vector_source_c([])
sample_rate = float(source.get_sample_rate())
self.__signal_type = SignalType(
kind='IQ',
sample_rate=sample_rate)
self.__usable_bandwidth = tuning.calc_usable_bandwidth(sample_rate)
@exported_value(type=SignalType)
def get_output_type(self):
return self.__signal_type
# implement IRXDriver
def get_tune_delay(self):
return 0.25 # TODO: make configurable and/or account for as many factors as we can
# implement IRXDriver
def get_usable_bandwidth(self):
return self.__usable_bandwidth
# implement IRXDriver
def close(self):
self._stop_rx()
self.__tuning = None
@exported_value(type=float)
def get_correction_ppm(self):
return self.__tuning.get_correction_ppm()
@setter
def set_correction_ppm(self, value):
self.__tuning.set_correction_ppm(value)
@exported_block()
def get_gains(self):
return self.__gains
@exported_value(type_fn=lambda self: convert_osmosdr_range(
self.__source.get_gain_range(ch), strict=False))
def get_gain(self):
if self.__source is None: return 0.0
return self.__source.get_gain(ch)
@setter
def set_gain(self, value):
self.__source.set_gain(float(value), ch)
@exported_value(type_fn=lambda self: bool if self.__profile.agc else Constant(False))
def get_agc(self):
if self.__source is None: return False
return bool(self.__source.get_gain_mode(ch))
@setter
def set_agc(self, value):
self.__source.set_gain_mode(bool(value), ch)
@exported_value(type_fn=lambda self: Enum(
{unicode(name): unicode(name) for name in self.__source.get_antennas()}))
def get_antenna(self):
if self.__source is None: return ''
return unicode(self.__source.get_antenna(ch))
# TODO review whether set_antenna is safe to expose
# Note: dc_cancel has a 'manual' mode we are not yet exposing
@exported_value(type_fn=lambda self: bool if self.__profile.dc_cancel else Constant(False))
def get_dc_cancel(self):
return bool(self.dc_state)
@setter
def set_dc_cancel(self, value):
if value:
mode = DCOffsetAutomatic
else:
mode = DCOffsetOff
self.dc_state = self.__source.set_dc_offset_mode(mode, ch)
# Note: iq_balance has a 'manual' mode we are not yet exposing
@exported_value(type=bool) # TODO: detect gr-iqbal
def get_iq_balance(self):
return bool(self.iq_state)
@setter
def set_iq_balance(self, value):
if value:
mode = IQBalanceAutomatic
else:
mode = IQBalanceOff
self.iq_state = self.__source.set_iq_balance_mode(mode, ch)
# add_zero because zero means automatic setting based on sample rate.
# TODO: Display automaticness in the UI rather than having a zero value.
@exported_value(type_fn=lambda self: convert_osmosdr_range(
self.__source.get_bandwidth_range(ch), add_zero=True))
def get_bandwidth(self):
if self.__source is None: return 0.0
return self.__source.get_bandwidth(ch)
@setter
def set_bandwidth(self, value):
self.__source.set_bandwidth(float(value), ch)
def notify_reconnecting_or_restarting(self):
pass
# link to tx driver
def _stop_rx(self):
self.disconnect_all()
self.__state_while_inactive = self.state_to_json()
self.__tuning.set_block(None)
self.__gains.close()
self.__source = None
self.connect(self.__placeholder, self)
# link to tx driver
def _start_rx(self):
self.disconnect_all()
self.__source = osmosdr.source('numchan=1 ' + self.__osmo_device)
self.__source.set_sample_rate(self.__signal_type.get_sample_rate())
self.__tuning.set_block(self.__source)
self.__gains = Gains(self.__source)
self.connect(self.__source, self)
self.state_from_json(self.__state_while_inactive)
class _LimeSDRRXDriver(ExportedState, gr.hier_block2):
# Note: Docs for gr-limesdr are in comments at gr-limesdr/include/limesdr/source.h
def __init__(self,
source,
device_type,
lna_path,
name,
tuning,
sample_rate):
gr.hier_block2.__init__(
self, defaultstr('RX ' + name),
gr.io_signature(0, 0, 0),
gr.io_signature(1, 1, gr.sizeof_gr_complex * 1),
)
self.__source = source
self.__name = name
self.__tuning = tuning
self.connect(self.__source, self)
# State of the source that there are no getters for, so we must keep our own copy of
self.__track_gain = 50.
source.set_gain(int(self.__track_gain), ch)
self.__track_bandwidth = max(sample_rate / 2, 1.5e6)
source.set_analog_filter(True, self.__track_bandwidth, ch)
self.__lna_path_type = EnumT({
LNANONE: 'None',
LNAH: 'LNAH',
LNAL: 'LNAL',
LNAW: 'LNAW',
})
if device_type == LimeSDRMini:
self.__lna_path_type = EnumT({
LNAH: 'LNAH',
LNAW: 'LNAW',
})
self.__track_lna_path = lna_path
self.__signal_type = SignalType(
kind='IQ',
sample_rate=sample_rate)
self.__usable_bandwidth = tuning.calc_usable_bandwidth(sample_rate)
@exported_value(type=SignalType, changes='never')
def get_output_type(self):
return self.__signal_type
# implement IRXDriver
def get_tune_delay(self):
# TODO: Measure this.
return 0.07
# implement IRXDriver
def get_usable_bandwidth(self):
if self.__track_bandwidth:
return self.__tuning.calc_usable_bandwidth(self.__track_bandwidth)
return self.__usable_bandwidth
# implement IRXDriver
def close(self):
self.disconnect_all()
self.__source = None
self.__tuning = None
@exported_value(
type_fn=lambda self: self.__lna_path_type,
changes='this_setter',
label='LNA Path')
def get_lna_path(self):
return self.__track_lna_path
@setter
def set_lna_path(self, lna_path):
self.__track_lna_path = int(lna_path)
self.__source.set_lna_path(int(lna_path), ch)
@exported_value(
type_fn=lambda self: RangeT([(0, 70)], unit=units.dB, strict=False),
changes='this_setter',
label='Gain')
def get_gain(self):
if self.__source is None: return 0.0
return self.__track_gain
@setter
def set_gain(self, value):
self.__track_gain = int(value)
self.__source.set_gain(int(value), ch)
# zero means no filter
@exported_value(
type_fn=lambda self: RangeT([(1e3, min(130e6, self.__signal_type.get_sample_rate()))], unit=units.Hz),
changes='this_setter',
label='Hardware filter',
description='Bandwidth of the analog and digital filters.')
def get_bandwidth(self):
if self.__source is None: return 0.0
return self.__track_bandwidth
@setter
def set_bandwidth(self, value):
self.__track_bandwidth = float(value)
if value == self.__signal_type.get_sample_rate():
self.__source.set_analog_filter(False, 0, ch)
self.__source.set_digital_filter(False, 0, ch)
return
# Analog filter goes down to 1.5e6, digital filter goes arbitrarily low.
analog = max(value, 1.5e6)
self.__source.set_analog_filter(True, float(analog), ch)
self.__source.set_digital_filter(True, float(value), ch)
def notify_reconnecting_or_restarting(self):
pass
class _OsmoSDRRXDriver(ExportedState, gr.hier_block2):
implements(IRXDriver)
# Note: Docs for gr-osmosdr are in comments at gr-osmosdr/lib/source_iface.h
def __init__(self,
osmo_device,
source,
profile,
name,
tuning):
gr.hier_block2.__init__(
self, 'RX ' + name,
gr.io_signature(0, 0, 0),
gr.io_signature(1, 1, gr.sizeof_gr_complex * 1),
)
self.__osmo_device = osmo_device
self.__source = source
self.__profile = profile
self.__name = name
self.__tuning = tuning
self.__antenna_type = Enum({unicode(name): unicode(name) for name in self.__source.get_antennas()}, strict=True)
self.connect(self.__source, self)
self.__gains = Gains(source)
# Misc state
self.dc_state = DCOffsetOff
self.iq_state = IQBalanceOff
source.set_dc_offset_mode(self.dc_state, ch) # no getter, set to known state
source.set_iq_balance_mode(self.iq_state, ch) # no getter, set to known state
# Blocks
self.__state_while_inactive = {}
self.__placeholder = blocks.vector_source_c([])
sample_rate = float(source.get_sample_rate())
self.__signal_type = SignalType(
kind='IQ',
sample_rate=sample_rate)
self.__usable_bandwidth = tuning.calc_usable_bandwidth(sample_rate)
@exported_value(type=SignalType)
def get_output_type(self):
return self.__signal_type
# implement IRXDriver
def get_tune_delay(self):
return self.__profile.tune_delay
# implement IRXDriver
def get_usable_bandwidth(self):
return self.__usable_bandwidth
# implement IRXDriver
def close(self):
self._stop_rx()
self.__tuning = None
@exported_value(type=float)
def get_correction_ppm(self):
return self.__tuning.get_correction_ppm()
@setter
def set_correction_ppm(self, value):
self.__tuning.set_correction_ppm(value)
@exported_block()
def get_gains(self):
return self.__gains
@exported_value(type_fn=lambda self: convert_osmosdr_range(
self.__source.get_gain_range(ch), strict=False))
def get_gain(self):
if self.__source is None: return 0.0
return self.__source.get_gain(ch)
@setter
def set_gain(self, value):
self.__source.set_gain(float(value), ch)
@exported_value(type_fn=lambda self: bool if self.__profile.agc else Constant(False))
def get_agc(self):
if self.__source is None: return False
return bool(self.__source.get_gain_mode(ch))
@setter
def set_agc(self, value):
self.__source.set_gain_mode(bool(value), ch)
@exported_value(type_fn=lambda self: self.__antenna_type)
def get_antenna(self):
if self.__source is None: return ''
return unicode(self.__source.get_antenna(ch))
@setter
def set_antenna(self, value):
# TODO we should have a provision for restricting antenna selection when transmit is possible to avoid hardware damage
self.__source.set_antenna(str(self.__antenna_type(value)), ch)
# Note: dc_cancel has a 'manual' mode we are not yet exposing
@exported_value(type_fn=lambda self: bool if self.__profile.dc_cancel else Constant(False))
def get_dc_cancel(self):
return bool(self.dc_state)
@setter
def set_dc_cancel(self, value):
if value:
mode = DCOffsetAutomatic
else:
mode = DCOffsetOff
self.dc_state = self.__source.set_dc_offset_mode(mode, ch)
# Note: iq_balance has a 'manual' mode we are not yet exposing
@exported_value(type=bool) # TODO: detect gr-iqbal
def get_iq_balance(self):
return bool(self.iq_state)
@setter
def set_iq_balance(self, value):
if value:
mode = IQBalanceAutomatic
else:
mode = IQBalanceOff
self.iq_state = self.__source.set_iq_balance_mode(mode, ch)
# add_zero because zero means automatic setting based on sample rate.
# TODO: Display automaticness in the UI rather than having a zero value.
@exported_value(type_fn=lambda self: convert_osmosdr_range(
self.__source.get_bandwidth_range(ch), add_zero=True))
def get_bandwidth(self):
if self.__source is None: return 0.0
return self.__source.get_bandwidth(ch)
@setter
def set_bandwidth(self, value):
self.__source.set_bandwidth(float(value), ch)
def notify_reconnecting_or_restarting(self):
pass
# link to tx driver
def _stop_rx(self):
self.disconnect_all()
self.__state_while_inactive = self.state_to_json()
self.__tuning.set_block(None)
self.__gains.close()
self.__source = None
self.connect(self.__placeholder, self)
# link to tx driver
def _start_rx(self):
self.disconnect_all()
self.__source = osmosdr.source('numchan=1 ' + self.__osmo_device)
self.__source.set_sample_rate(self.__signal_type.get_sample_rate())
self.__tuning.set_block(self.__source)
self.__gains = Gains(self.__source)
self.connect(self.__source, self)
self.state_from_json(self.__state_while_inactive)
class _LimeSDRRXDriver(ExportedState, gr.hier_block2):
# Note: Docs for gr-limesdr are in comments at gr-limesdr/include/limesdr/source.h
def __init__(self, source, device_type, lna_path, name, tuning,
sample_rate):
gr.hier_block2.__init__(
self,
defaultstr('RX ' + name),
gr.io_signature(0, 0, 0),
gr.io_signature(1, 1, gr.sizeof_gr_complex * 1),
)
self.__source = source
self.__name = name
self.__tuning = tuning
self.connect(self.__source, self)
# State of the source that there are no getters for, so we must keep our own copy of
self.__track_gain = 50.
source.set_gain(int(self.__track_gain), ch)
self.__track_bandwidth = max(sample_rate / 2, 1.5e6)
source.set_analog_filter(True, self.__track_bandwidth, ch)
self.__lna_path_type = EnumT({
LNANONE: 'None',
LNAH: 'LNAH',
LNAL: 'LNAL',
LNAW: 'LNAW',
})
if device_type == LimeSDRMini:
self.__lna_path_type = EnumT({
LNAH: 'LNAH',
LNAW: 'LNAW',
})
self.__track_lna_path = lna_path
self.__signal_type = SignalType(kind='IQ', sample_rate=sample_rate)
self.__usable_bandwidth = tuning.calc_usable_bandwidth(sample_rate)
@exported_value(type=SignalType, changes='never')
def get_output_type(self):
return self.__signal_type
# implement IRXDriver
def get_tune_delay(self):
# TODO: Measure this.
return 0.07
# implement IRXDriver
def get_usable_bandwidth(self):
if self.__track_bandwidth:
return self.__tuning.calc_usable_bandwidth(self.__track_bandwidth)
return self.__usable_bandwidth
# implement IRXDriver
def close(self):
self.disconnect_all()
self.__source = None
self.__tuning = None
@exported_value(type_fn=lambda self: self.__lna_path_type,
changes='this_setter',
label='LNA Path')
def get_lna_path(self):
return self.__track_lna_path
@setter
def set_lna_path(self, lna_path):
self.__track_lna_path = int(lna_path)
self.__source.set_lna_path(int(lna_path), ch)
@exported_value(
type_fn=lambda self: RangeT([(0, 70)], unit=units.dB, strict=False),
changes='this_setter',
label='Gain')
def get_gain(self):
if self.__source is None: return 0.0
return self.__track_gain
@setter
def set_gain(self, value):
self.__track_gain = int(value)
self.__source.set_gain(int(value), ch)
# zero means no filter
@exported_value(type_fn=lambda self: RangeT([(
1e3, min(130e6, self.__signal_type.get_sample_rate()))],
unit=units.Hz),
changes='this_setter',
label='Hardware filter',
description='Bandwidth of the analog and digital filters.')
def get_bandwidth(self):
if self.__source is None: return 0.0
return self.__track_bandwidth
@setter
def set_bandwidth(self, value):
self.__track_bandwidth = float(value)
if value == self.__signal_type.get_sample_rate():
self.__source.set_analog_filter(False, 0, ch)
self.__source.set_digital_filter(False, 0, ch)
return
# Analog filter goes down to 1.5e6, digital filter goes arbitrarily low.
analog = max(value, 1.5e6)
self.__source.set_analog_filter(True, float(analog), ch)
self.__source.set_digital_filter(True, float(value), ch)
def notify_reconnecting_or_restarting(self):
pass
