Rohde & Schwarz Drivers

Classes:

RohdeSchwarzRTO1000(name, address, *[, ...])	QCoDeS Instrument driver for the Rohde-Schwarz RTO1000 series oscilloscopes.
RohdeSchwarzRTO1000ScopeChannel(parent, ...)	Class to hold an input channel of the scope.
RohdeSchwarzRTO1000ScopeMeasurement(parent, ...)	Class to hold a measurement of the scope.
RohdeSchwarzSGS100A(name, address, **kwargs)	This is the QCoDeS driver for the Rohde & Schwarz SGS100A signal generator.
RohdeSchwarzZNB20(name, address[, ...])	QCoDeS driver for Rohde & Schwarz ZNB20
RohdeSchwarzZNB8(name, address[, ...])	QCoDeS driver for Rohde & Schwarz ZNB8
RohdeSchwarzZNBBase(name, address[, ...])	Base class for QCoDeS driver for the Rohde & Schwarz ZNB8 and ZNB20 virtual network analyser.
RohdeSchwarzZNBChannel(parent, name, channel)

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzRTO1000(name: str, address: str, *, model: str | None = None, HD: bool = True, **kwargs: Unpack[VisaInstrumentKWArgs])

Bases: VisaInstrument

QCoDeS Instrument driver for the Rohde-Schwarz RTO1000 series oscilloscopes.

Parameters:

• name – name of the instrument

• address – VISA resource address

• model – The instrument model. For newer firmware versions, this can be auto-detected

• HD – Does the unit have the High Definition Option (allowing 16 bit vertical resolution)

• **kwargs – kwargs are forwarded to base class.

Attributes:

default_timeout	The default timeout in seconds if the timeout is not specified when creating the instrument.
default_terminator	The default terminator to use if the terminator is not specified when creating the instrument.
display	Parameter display
trigger_display	Parameter trigger_display
trigger_source	Parameter trigger_source
trigger_mode	Sets the trigger mode which determines the behaviour of the instrument if no trigger occurs.
trigger_type	Parameter trigger_type
trigger_level	Parameter trigger_level
trigger_edge_slope	Parameter trigger_edge_slope
timebase_scale	Parameter timebase_scale
timebase_range	Parameter timebase_range
timebase_position	Parameter timebase_position
run_mode	Parameter run_mode
num_acquisitions	Parameter num_acquisitions
completed_acquisitions	Parameter completed_acquisitions
sampling_rate	Number of averages for measuring trace.
acquisition_sample_rate	recorded waveform samples per second
dataformat	Parameter dataformat
high_definition_state	Sets the filter bandwidth for the high definition mode.
high_definition_bandwidth	Parameter high_definition_bandwidth
error_count	Parameter error_count
error_next	Parameter error_next
opc	Parameter opc
stop_opc	Parameter stop_opc
status_operation	Parameter status_operation

Methods:

run_cont()	Set the instrument in 'RUN CONT' mode
run_single()	Set the instrument in 'RUN Nx SINGLE' mode
is_triggered()
is_running()
is_acquiring()

default_timeout: float | None = 5.0

The default timeout in seconds if the timeout is not specified when creating the instrument. None means no timeout e.g. wait forever.

default_terminator: str | None = '\n'

The default terminator to use if the terminator is not specified when creating the instrument. None means use the default terminator from PyVisa.

display: Parameter = self.add_parameter( "display", label="Display state", set_cmd="SYSTem:DISPlay:UPDate {}", val_mapping={"remote": 0, "view": 1}, )

Parameter display

trigger_display: Parameter = self.add_parameter( "trigger_display", label="Trigger display state", set_cmd="DISPlay:TRIGger:LINes {}", get_cmd="DISPlay:TRIGger:LINes?", val_mapping={"ON": 1, "OFF": 0}, )

Parameter trigger_display

trigger_source: Parameter = self.add_parameter( "trigger_source", label="Trigger source", set_cmd="TRIGger1:SOURce {}", get_cmd="TRIGger1:SOURce?", val_mapping={ "CH1": "CHAN1", "CH2": "CHAN2", "CH3": "CHAN3", "CH4": "CHAN4", "EXT": "EXT", }, )

Parameter trigger_source

trigger_mode: Parameter = self.add_parameter( "trigger_mode", label="Trigger mode", set_cmd="TRIGger:MODE {}", get_cmd="TRIGger1:SOURce?", vals=vals.Enum("AUTO", "NORMAL", "FREERUN"), docstring="Sets the trigger mode which determines" " the behaviour of the instrument if no" " trigger occurs.\n" "Options: AUTO, NORMAL, FREERUN.", unit="none", )

Sets the trigger mode which determines the behaviour of the instrument if no trigger occurs. Options: AUTO, NORMAL, FREERUN.

trigger_type: Parameter = self.add_parameter( "trigger_type", label="Trigger type", set_cmd="TRIGger1:TYPE {}", get_cmd="TRIGger1:TYPE?", val_mapping={ "EDGE": "EDGE", "GLITCH": "GLIT", "WIDTH": "WIDT", "RUNT": "RUNT", "WINDOW": "WIND", "TIMEOUT": "TIM", "INTERVAL": "INT", "SLEWRATE": "SLEW", "DATATOCLOCK": "DAT", "STATE": "STAT", "PATTERN": "PATT", "ANEDGE": "ANED", "SERPATTERN": "SERP", "NFC": "NFC", "TV": "TV", "CDR": "CDR", }, )

Parameter trigger_type

trigger_level: Parameter = self.add_parameter( "trigger_level", label="Trigger level", set_cmd=self._set_trigger_level, get_cmd=self._get_trigger_level, )

Parameter trigger_level

visabackend: str = visabackend

visa_handle: pyvisa.resources.MessageBasedResource = visa_handle

The VISA resource used by this instrument.

visalib: str | None = visalib

parameters: dict[str, ParameterBase] = {}

All the parameters supported by this instrument. Usually populated via add_parameter().

functions: dict[str, Function] = {}

All the functions supported by this instrument. Usually populated via add_function().

submodules: dict[str, InstrumentModule | ChannelTuple] = {}

All the submodules of this instrument such as channel lists or logical groupings of parameters. Usually populated via add_submodule().

instrument_modules: dict[str, InstrumentModule] = {}

All the InstrumentModule of this instrument Usually populated via add_submodule().

log: InstrumentLoggerAdapter = get_instrument_logger(self, __name__)

metadata: dict[str, Any] = {}

trigger_edge_slope: Parameter = self.add_parameter( "trigger_edge_slope", label="Edge trigger slope", set_cmd="TRIGger1:EDGE:SLOPe {}", get_cmd="TRIGger1:EDGE:SLOPe?", vals=vals.Enum("POS", "NEG", "EITH"), )

Parameter trigger_edge_slope

timebase_scale: Parameter = self.add_parameter( "timebase_scale", label="Timebase scale", set_cmd=self._set_timebase_scale, get_cmd="TIMebase:SCALe?", unit="s/div", get_parser=float, vals=vals.Numbers(25e-12, 10000), )

Parameter timebase_scale

timebase_range: Parameter = self.add_parameter( "timebase_range", label="Timebase range", set_cmd=self._set_timebase_range, get_cmd="TIMebase:RANGe?", unit="s", get_parser=float, vals=vals.Numbers(250e-12, 100e3), )

Parameter timebase_range

timebase_position: Parameter = self.add_parameter( "timebase_position", label="Horizontal position", set_cmd=self._set_timebase_position, get_cmd="TIMEbase:HORizontal:POSition?", get_parser=float, unit="s", vals=vals.Numbers(-100e24, 100e24), )

Parameter timebase_position

run_mode: Parameter = self.add_parameter( "run_mode", label="Run/acquisition mode of the scope", get_cmd=None, set_cmd=None, )

Parameter run_mode

num_acquisitions: Parameter = self.add_parameter( "num_acquisitions", label="Number of single acquisitions to perform", get_cmd="ACQuire:COUNt?", set_cmd="ACQuire:COUNt {}", vals=vals.Ints(1, 16777215), get_parser=int, )

Parameter num_acquisitions

completed_acquisitions: Parameter = self.add_parameter( "completed_acquisitions", label="Number of completed acquisitions", get_cmd="ACQuire:CURRent?", get_parser=int, )

Parameter completed_acquisitions

sampling_rate: Parameter = self.add_parameter( "sampling_rate", label="Sample rate", docstring="Number of averages for measuring trace.", unit="Sa/s", get_cmd="ACQuire:POINts:ARATe" + "?", get_parser=int, )

Number of averages for measuring trace.

acquisition_sample_rate: Parameter = self.add_parameter( "acquisition_sample_rate", label="Acquisition sample rate", unit="Sa/s", docstring="recorded waveform samples per second", get_cmd="ACQuire:SRATe" + "?", set_cmd="ACQuire:SRATe " + " {:.2f}", vals=vals.Numbers(2, 20e12), get_parser=float, )

recorded waveform samples per second

dataformat: Parameter = self.add_parameter( "dataformat", label="Export data format", set_cmd="FORMat:DATA {}", get_cmd="FORMat:DATA?", vals=vals.Enum("ASC,0", "REAL,32", "INT,8", "INT,16"), )

Parameter dataformat

high_definition_state: Parameter

Sets the filter bandwidth for the high definition mode. ON: high definition mode, up to 16 bit digital resolution Options: ON, OFF

Warning/Bug: By opening the HD acquisition menu on the scope, this value will be set to “ON”.

high_definition_bandwidth: Parameter

Parameter high_definition_bandwidth

error_count: Parameter = self.add_parameter( "error_count", label="Number of errors in the error stack", get_cmd="SYSTem:ERRor:COUNt?", unit="#", get_parser=int, )

Parameter error_count

error_next: Parameter = self.add_parameter( "error_next", label="Next error from the error stack", get_cmd="SYSTem:ERRor:NEXT?", get_parser=str, )

Parameter error_next

opc: Parameter = self.add_parameter("opc", get_cmd="*OPC?")

Parameter opc

stop_opc: Parameter = self.add_parameter("stop_opc", get_cmd="STOP;*OPC?")

Parameter stop_opc

status_operation: Parameter = self.add_parameter( "status_operation", get_cmd="STATus:OPERation:CONDition?", get_parser=int )

Parameter status_operation

run_cont() → None

Set the instrument in ‘RUN CONT’ mode

run_single() → None

Set the instrument in ‘RUN Nx SINGLE’ mode

is_triggered() → bool

is_running() → bool

is_acquiring() → bool

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzRTO1000ScopeChannel(parent: Instrument, name: str, channum: int, **kwargs: Unpack[InstrumentBaseKWArgs])

Bases: InstrumentChannel

Class to hold an input channel of the scope.

Exposes: state, coupling, ground, scale, range, position, offset, invert, bandwidth, impedance, overload.

Parameters:

• parent – The instrument to which the channel is attached

• name – The name of the channel

• channum – The number of the channel in question. Must match the actual number as used by the instrument (1..4)

• **kwargs – Forwarded to base class.

Attributes:

state	Switches the channel on or off
coupling	Selects the connection of the channel signal.
ground	Connects/disconnects the signal to/from the ground.
scale	Parameter scale
range	Parameter range
position	Positive values move the waveform up, negative values move it down.
offset	Parameter offset
invert	Parameter invert
bandwidth	Parameter bandwidth
impedance	Sets the impedance of the channel for power calculations and measurements.
overload	Parameter overload
arithmetics	Parameter arithmetics
trace	Parameter trace

state: Parameter = self.add_parameter( "state", label=f"Channel {channum} state", get_cmd=f"CHANnel{channum}:STATe?", set_cmd=f"CHANnel{channum}:STATE {{}}", vals=vals.Enum("ON", "OFF"), docstring="Switches the channel on or off", )

Switches the channel on or off

coupling: Parameter = self.add_parameter( "coupling", label=f"Channel {channum} coupling", get_cmd=f"CHANnel{channum}:COUPling?", set_cmd=f"CHANnel{channum}:COUPling {{}}", vals=vals.Enum("DC", "DCLimit", "AC"), docstring=( "Selects the connection of the channel " "signal. DC: 50 Ohm, DCLimit 1 MOhm, " "AC: Con. through DC capacitor" ), )

Selects the connection of the channel signal. DC: 50 Ohm, DCLimit 1 MOhm, AC: Con. through DC capacitor

ground: Parameter = self.add_parameter( "ground", label=f"Channel {channum} ground", get_cmd=f"CHANnel{channum}:GND?", set_cmd=f"CHANnel{channum}:GND {{}}", vals=vals.Enum("ON", "OFF"), docstring=("Connects/disconnects the signal to/from the ground."), )

Connects/disconnects the signal to/from the ground.

scale: Parameter = self.add_parameter( "scale", label=f"Channel {channum} Y scale", unit="V/div", get_cmd=f"CHANnel{channum}:SCALe?", set_cmd=self._set_scale, get_parser=float, )

Parameter scale

range: Parameter = self.add_parameter( "range", label=f"Channel {channum} Y range", unit="V", get_cmd=f"CHANnel{channum}:RANGe?", set_cmd=self._set_range, get_parser=float, )

Parameter range

position: Parameter = self.add_parameter( "position", label=f"Channel {channum} vert. pos.", unit="div", get_cmd=f"CHANnel{channum}:POSition?", set_cmd=f"CHANnel{channum}:POSition {{}}", get_parser=float, vals=vals.Numbers(-5, 5), docstring=( "Positive values move the waveform up, negative values move it down." ), )

Positive values move the waveform up, negative values move it down.

offset: Parameter = self.add_parameter( "offset", label=f"Channel {channum} offset", unit="V", get_cmd=f"CHANnel{channum}:OFFSet?", set_cmd=f"CHANnel{channum}:OFFSet {{}}", get_parser=float, )

Parameter offset

invert: Parameter = self.add_parameter( "invert", label=f"Channel {channum} inverted", get_cmd=f"CHANnel{channum}:INVert?", set_cmd=f"CHANnel{channum}:INVert {{}}", vals=vals.Enum("ON", "OFF"), )

Parameter invert

bandwidth: Parameter = self.add_parameter( "bandwidth", label=f"Channel {channum} bandwidth", get_cmd=f"CHANnel{channum}:BANDwidth?", set_cmd=f"CHANnel{channum}:BANDwidth {{}}", vals=vals.Enum("FULL", "B800", "B200", "B20"), )

Parameter bandwidth

impedance: Parameter = self.add_parameter( "impedance", label=f"Channel {channum} impedance", unit="Ohm", get_cmd=f"CHANnel{channum}:IMPedance?", set_cmd=f"CHANnel{channum}:IMPedance {{}}", vals=vals.Ints(1, 100000), docstring=( "Sets the impedance of the channel " "for power calculations and " "measurements." ), )

Sets the impedance of the channel for power calculations and measurements.

overload: Parameter = self.add_parameter( "overload", label=f"Channel {channum} overload", get_cmd=f"CHANnel{channum}:OVERload?", )

Parameter overload

arithmetics: Parameter = self.add_parameter( "arithmetics", label=f"Channel {channum} arithmetics", set_cmd=f"CHANnel{channum}:ARIThmetics {{}}", get_cmd=f"CHANnel{channum}:ARIThmetics?", val_mapping={"AVERAGE": "AVER", "OFF": "OFF", "ENVELOPE": "ENV"}, )

Parameter arithmetics

trace: ScopeTrace = self.add_parameter( "trace", channum=self.channum, parameter_class=ScopeTrace )

Parameter trace

parameters: dict[str, ParameterBase] = {}

All the parameters supported by this instrument. Usually populated via add_parameter().

functions: dict[str, Function] = {}

All the functions supported by this instrument. Usually populated via add_function().

submodules: dict[str, InstrumentModule | ChannelTuple] = {}

All the submodules of this instrument such as channel lists or logical groupings of parameters. Usually populated via add_submodule().

instrument_modules: dict[str, InstrumentModule] = {}

All the InstrumentModule of this instrument Usually populated via add_submodule().

log: InstrumentLoggerAdapter = get_instrument_logger(self, __name__)

metadata: dict[str, Any] = {}

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzRTO1000ScopeMeasurement(parent: Instrument, name: str, meas_nr: int, **kwargs: Unpack[InstrumentBaseKWArgs])

Bases: InstrumentChannel

Class to hold a measurement of the scope.

Parameters:

• parent – The instrument to which the channel is attached

• name – The name of the measurement

• meas_nr – The number of the measurement in question. Must match the actual number as used by the instrument (1..8)

• **kwargs – Forwarded to base class.

Attributes:

enable	Switches the measurement on or off.
source	Set the source of a measurement if the measurement only needs one source.
source_first	Set the first source of a measurement if the measurement only needs multiple sources.
source_second	Set the second source of a measurement if the measurement only needs multiple sources.
category	Set the category of a measurement.
main	Set the main of a measurement.
statistics_enable	Switches the measurement on or off.
clear	Clears/reset measurement.
event_count	Number of measurement results in the long-term measurement.
result_avg	Average of the long-term measurement results.

enable: Parameter = self.add_parameter( "enable", label=f"Measurement {meas_nr} enable", set_cmd=f"MEASurement{meas_nr}:ENABle {{}}", vals=vals.Enum("ON", "OFF"), docstring="Switches the measurement on or off.", )

Switches the measurement on or off.

source: Parameter = self.add_parameter( "source", label=f"Measurement {meas_nr} source", set_cmd=f"MEASurement{meas_nr}:SOURce {{}}", vals=self.sources, docstring="Set the source of a measurement if the " "measurement only needs one source.", )

Set the source of a measurement if the measurement only needs one source.

source_first: Parameter = self.add_parameter( "source_first", label=f"Measurement {meas_nr} first source", set_cmd=f"MEASurement{meas_nr}:FSRC {{}}", vals=self.sources, docstring="Set the first source of a measurement" " if the measurement only needs multiple" " sources.", )

Set the first source of a measurement if the measurement only needs multiple sources.

source_second: Parameter = self.add_parameter( "source_second", label=f"Measurement {meas_nr} second source", set_cmd=f"MEASurement{meas_nr}:SSRC {{}}", vals=self.sources, docstring="Set the second source of a measurement" " if the measurement only needs multiple" " sources.", )

Set the second source of a measurement if the measurement only needs multiple sources.

category: Parameter = self.add_parameter( "category", label=f"Measurement {meas_nr} category", set_cmd=f"MEASurement{meas_nr}:CATegory {{}}", vals=self.categories, docstring="Set the category of a measurement.", )

Set the category of a measurement.

main: Parameter = self.add_parameter( "main", label=f"Measurement {meas_nr} main", set_cmd=f"MEASurement{meas_nr}:MAIN {{}}", vals=self.meas_type, docstring="Set the main of a measurement.", )

Set the main of a measurement.

statistics_enable: Parameter = self.add_parameter( "statistics_enable", label=f"Measurement {meas_nr} enable statistics", set_cmd=f"MEASurement{meas_nr}:STATistics:ENABle {{}}", vals=vals.Enum("ON", "OFF"), docstring="Switches the measurement on or off.", )

Switches the measurement on or off.

clear: Parameter = self.add_parameter( "clear", label=f"Measurement {meas_nr} clear statistics", set_cmd=f"MEASurement{meas_nr}:CLEar", docstring="Clears/reset measurement.", )

Clears/reset measurement.

event_count: Parameter = self.add_parameter( "event_count", label=f"Measurement {meas_nr} number of events", get_cmd=f"MEASurement{meas_nr}:RESult:EVTCount?", get_parser=int, docstring="Number of measurement results in the long-term measurement.", )

Number of measurement results in the long-term measurement.

result_avg: Parameter = self.add_parameter( "result_avg", label=f"Measurement {meas_nr} averages", get_cmd=f"MEASurement{meas_nr}:RESult:AVG?", get_parser=float, docstring="Average of the long-term measurement results.", )

Average of the long-term measurement results.

parameters: dict[str, ParameterBase] = {}

All the parameters supported by this instrument. Usually populated via add_parameter().

functions: dict[str, Function] = {}

All the functions supported by this instrument. Usually populated via add_function().

submodules: dict[str, InstrumentModule | ChannelTuple] = {}

All the submodules of this instrument such as channel lists or logical groupings of parameters. Usually populated via add_submodule().

instrument_modules: dict[str, InstrumentModule] = {}

All the InstrumentModule of this instrument Usually populated via add_submodule().

log: InstrumentLoggerAdapter = get_instrument_logger(self, __name__)

metadata: dict[str, Any] = {}

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzSGS100A(name: str, address: str, **kwargs: Unpack[VisaInstrumentKWArgs])

Bases: VisaInstrument

This is the QCoDeS driver for the Rohde & Schwarz SGS100A signal generator.

Status: beta-version.

Todo

• Add all parameters that are in the manual

• Add test suite

• See if there can be a common driver for RS mw sources from which different models inherit

This driver will most likely work for multiple Rohde & Schwarz sources. it would be a good idea to group all similar RS drivers together in one module.

Tested working with

• RS_SGS100A

This driver does not contain all commands available for the RS_SGS100A but only the ones most commonly used.

Attributes:

default_terminator	The default terminator to use if the terminator is not specified when creating the instrument.
frequency	Parameter frequency
phase	Parameter phase
power	Parameter power
status	Parameter status
IQ_state	Parameter IQ_state
pulsemod_state	Parameter pulsemod_state
pulsemod_source	Parameter pulsemod_source
ref_osc_source	Parameter ref_osc_source
LO_source	Parameter LO_source
ref_LO_out	Parameter ref_LO_out
ref_osc_output_freq	Parameter ref_osc_output_freq
ref_osc_external_freq	Parameter ref_osc_external_freq
IQ_impairments	Parameter IQ_impairments
I_offset	Parameter I_offset
Q_offset	Parameter Q_offset
IQ_gain_imbalance	Parameter IQ_gain_imbalance
IQ_angle	Parameter IQ_angle
trigger_connector_mode	Parameter trigger_connector_mode
pulsemod_delay	Parameter pulsemod_delay
pulsemod_double_delay	Parameter pulsemod_double_delay
pulsemod_double_width	Parameter pulsemod_double_width
pulsemod_mode	Parameter pulsemod_mode
pulsemod_period	Parameter pulsemod_period
pulsemod_polarity	Parameter pulsemod_polarity
pulsemod_trig_ext_gate_polarity	Parameter pulsemod_trig_ext_gate_polarity
pulsemod_trig_ext_impedance	Parameter pulsemod_trig_ext_impedance
pulsemod_trig_ext_slope	Parameter pulsemod_trig_ext_slope
pulsemod_trig_mode	Parameter pulsemod_trig_mode
pulsemod_width	Parameter pulsemod_width

Methods:

on()
off()

default_terminator: str | None = '\n'

The default terminator to use if the terminator is not specified when creating the instrument. None means use the default terminator from PyVisa.

frequency: Parameter = self.add_parameter( name="frequency", label="Frequency", unit="Hz", get_cmd="SOUR:FREQ?", set_cmd="SOUR:FREQ {:.2f}", get_parser=float, vals=vals.Numbers(1e6, 20e9), )

Parameter frequency

phase: Parameter = self.add_parameter( name="phase", label="Phase", unit="deg", get_cmd="SOUR:PHAS?", set_cmd="SOUR:PHAS {:.2f}", get_parser=float, vals=vals.Numbers(0, 360), )

Parameter phase

power: Parameter = self.add_parameter( name="power", label="Power", unit="dBm", get_cmd="SOUR:POW?", set_cmd="SOUR:POW {:.2f}", get_parser=float, vals=vals.Numbers(-120, 25), )

Parameter power

status: Parameter = self.add_parameter( "status", label="RF Output", get_cmd=":OUTP:STAT?", set_cmd=":OUTP:STAT {}", val_mapping=create_on_off_val_mapping(on_val="1", off_val="0"), )

Parameter status

IQ_state: Parameter = self.add_parameter( "IQ_state", label="IQ Modulation", get_cmd=":IQ:STAT?", set_cmd=":IQ:STAT {}", val_mapping=create_on_off_val_mapping(on_val="1", off_val="0"), )

Parameter IQ_state

pulsemod_state: Parameter = self.add_parameter( "pulsemod_state", label="Pulse Modulation", get_cmd=":SOUR:PULM:STAT?", set_cmd=":SOUR:PULM:STAT {}", val_mapping=create_on_off_val_mapping(on_val="1", off_val="0"), )

Parameter pulsemod_state

pulsemod_source: Parameter = self.add_parameter( "pulsemod_source", label="Pulse Modulation Source", get_cmd="SOUR:PULM:SOUR?", set_cmd="SOUR:PULM:SOUR {}", vals=vals.Enum("INT", "EXT", "int", "ext"), )

Parameter pulsemod_source

ref_osc_source: Parameter = self.add_parameter( "ref_osc_source", label="Reference Oscillator Source", get_cmd="SOUR:ROSC:SOUR?", set_cmd="SOUR:ROSC:SOUR {}", vals=vals.Enum("INT", "EXT", "int", "ext"), )

Parameter ref_osc_source

LO_source: Parameter = self.add_parameter( "LO_source", label="Local Oscillator Source", get_cmd="SOUR:LOSC:SOUR?", set_cmd="SOUR:LOSC:SOUR {}", vals=vals.Enum("INT", "EXT", "int", "ext"), )

Parameter LO_source

ref_LO_out: Parameter = self.add_parameter( "ref_LO_out", label="REF/LO Output", get_cmd="CONN:REFL:OUTP?", set_cmd="CONN:REFL:OUTP {}", vals=vals.Enum("REF", "LO", "OFF", "ref", "lo", "off", "Off"), )

Parameter ref_LO_out

ref_osc_output_freq: Parameter = self.add_parameter( "ref_osc_output_freq", label="Reference Oscillator Output Frequency", get_cmd="SOUR:ROSC:OUTP:FREQ?", set_cmd="SOUR:ROSC:OUTP:FREQ {}", vals=vals.Enum("10MHz", "100MHz", "1000MHz"), )

Parameter ref_osc_output_freq

ref_osc_external_freq: Parameter = self.add_parameter( "ref_osc_external_freq", label="Reference Oscillator External Frequency", get_cmd="SOUR:ROSC:EXT:FREQ?", set_cmd="SOUR:ROSC:EXT:FREQ {}", vals=vals.Enum("10MHz", "100MHz", "1000MHz"), )

Parameter ref_osc_external_freq

IQ_impairments: Parameter = self.add_parameter( "IQ_impairments", label="IQ Impairments", get_cmd=":SOUR:IQ:IMP:STAT?", set_cmd=":SOUR:IQ:IMP:STAT {}", val_mapping=create_on_off_val_mapping(on_val="1", off_val="0"), )

Parameter IQ_impairments

I_offset: Parameter = self.add_parameter( "I_offset", label="I Offset", get_cmd="SOUR:IQ:IMP:LEAK:I?", set_cmd="SOUR:IQ:IMP:LEAK:I {:.2f}", get_parser=float, vals=vals.Numbers(-10, 10), )

Parameter I_offset

Q_offset: Parameter = self.add_parameter( "Q_offset", label="Q Offset", get_cmd="SOUR:IQ:IMP:LEAK:Q?", set_cmd="SOUR:IQ:IMP:LEAK:Q {:.2f}", get_parser=float, vals=vals.Numbers(-10, 10), )

Parameter Q_offset

IQ_gain_imbalance: Parameter = self.add_parameter( "IQ_gain_imbalance", label="IQ Gain Imbalance", get_cmd="SOUR:IQ:IMP:IQR?", set_cmd="SOUR:IQ:IMP:IQR {:.2f}", get_parser=float, vals=vals.Numbers(-1, 1), )

Parameter IQ_gain_imbalance

visabackend: str = visabackend

visa_handle: pyvisa.resources.MessageBasedResource = visa_handle

The VISA resource used by this instrument.

visalib: str | None = visalib

parameters: dict[str, ParameterBase] = {}

All the parameters supported by this instrument. Usually populated via add_parameter().

functions: dict[str, Function] = {}

All the functions supported by this instrument. Usually populated via add_function().

submodules: dict[str, InstrumentModule | ChannelTuple] = {}

All the submodules of this instrument such as channel lists or logical groupings of parameters. Usually populated via add_submodule().

instrument_modules: dict[str, InstrumentModule] = {}

All the InstrumentModule of this instrument Usually populated via add_submodule().

log: InstrumentLoggerAdapter = get_instrument_logger(self, __name__)

metadata: dict[str, Any] = {}

IQ_angle: Parameter = self.add_parameter( "IQ_angle", label="IQ Angle Offset", get_cmd="SOUR:IQ:IMP:QUAD?", set_cmd="SOUR:IQ:IMP:QUAD {:.2f}", get_parser=float, vals=vals.Numbers(-8, 8), )

Parameter IQ_angle

trigger_connector_mode: Parameter = self.add_parameter( "trigger_connector_mode", label="Trigger Connector Mode", get_cmd="CONN:TRIG:OMOD?", set_cmd="CONN:TRIG:OMOD {}", vals=vals.Enum( "SVAL", # SVALid - Signal valid "SNVAL", # SNValid - Signal not valid "PVO", # PVOut - Pulse video out (K22 Only) "PET", # PETrigger - Pulse mod ext trigger - PETrigger (K22 Only) "PEMS", # PEMSource - Pulse mode ext source (K22 Only) "sval", # same as SVAL "snval", # same as SNVAL "pvo", # same as PVO "pet", # same as PET "pems", # same as PEMS ), )

Parameter trigger_connector_mode

pulsemod_delay: Parameter = self.add_parameter( "pulsemod_delay", label="Pulse delay", unit="s", get_cmd="SOUR:PULM:DEL?", set_cmd="SOUR:PULM:DEL {:g}", get_parser=float, vals=vals.Numbers(0, 100), )

Parameter pulsemod_delay

pulsemod_double_delay: Parameter = self.add_parameter( "pulsemod_double_delay", label="Pulse double delay", unit="s", get_cmd="SOUR:PULM:DOUB:DEL?", set_cmd="SOUR:PULM:DOUB:DEL {:g}", get_parser=float, vals=vals.Numbers(40e-9, 100), )

Parameter pulsemod_double_delay

pulsemod_double_width: Parameter = self.add_parameter( "pulsemod_double_width", label="Double pulse second width", unit="s", get_cmd="SOUR:PULM:DOUB:WIDT?", set_cmd="SOUR:PULM:DOUB:WIDT {:g}", get_parser=float, vals=vals.Numbers(20e-9, 100), )

Parameter pulsemod_double_width

pulsemod_mode: Parameter = self.add_parameter( "pulsemod_mode", label="Pulse modulation mode", get_cmd="SOUR:PULM:MODE?", set_cmd="SOUR:PULM:MODE {}", vals=vals.Enum("SING", "DOUB", "sing", "doub", "single", "double"), )

Parameter pulsemod_mode

pulsemod_period: Parameter = self.add_parameter( "pulsemod_period", label="Pulse mode period", unit="s", get_cmd="SOUR:PULM:PER?", set_cmd="SOUR:PULM:PER {:g}", get_parser=float, vals=vals.Numbers(100e-9, 100), )

Parameter pulsemod_period

pulsemod_polarity: Parameter = self.add_parameter( "pulsemod_polarity", label="Pulse modulator signal polarity", get_cmd="SOUR:PULM:POL?", set_cmd="SOUR:PULM:POL {}", vals=vals.Enum("NORM", "INV", "norm", "inv", "normal", "inverted"), )

Parameter pulsemod_polarity

pulsemod_trig_ext_gate_polarity: Parameter = self.add_parameter( "pulsemod_trig_ext_gate_polarity", label="Polarity of the Gate signal", get_cmd="SOUR:PULM:TRIG:EXT:GATE:POL?", set_cmd="SOUR:PULM:TRIG:EXT:GATE:POL {}", vals=vals.Enum("NORM", "INV", "norm", "inv", "normal", "inverted"), )

Parameter pulsemod_trig_ext_gate_polarity

pulsemod_trig_ext_impedance: Parameter = self.add_parameter( "pulsemod_trig_ext_impedance", label="Impedance of the external pulse trigger", get_cmd="SOUR:PULM:TRIG:EXT:IMP?", set_cmd="SOUR:PULM:TRIG:EXT:IMP {}", vals=vals.Enum("G50", "G10K"), )

Parameter pulsemod_trig_ext_impedance

pulsemod_trig_ext_slope: Parameter = self.add_parameter( "pulsemod_trig_ext_slope", label="external pulse trigger active slope", get_cmd="SOUR:PULM:TRIG:EXT:SLOP?", set_cmd="SOUR:PULM:TRIG:EXT:SLOP {}", vals=vals.Enum("NEG", "POS", "neg", "pos", "negative", "positive"), )

Parameter pulsemod_trig_ext_slope

pulsemod_trig_mode: Parameter = self.add_parameter( "pulsemod_trig_mode", label="external pulse trigger active slope", get_cmd="SOUR:PULM:TRIG:MODE?", set_cmd="SOUR:PULM:TRIG:MODE {}", vals=vals.Enum( "AUTO", "EXT", "EGAT", "auto", "ext", "egat", "external", "egate" ), )

Parameter pulsemod_trig_mode

pulsemod_width: Parameter = self.add_parameter( "pulsemod_width", label="Pulse width", unit="s", get_cmd="SOUR:PULM:WIDT?", set_cmd="SOUR:PULM:WIDT {:g}", get_parser=float, vals=vals.Numbers(20e-9, 100), )

Parameter pulsemod_width

on() → None

off() → None

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzZNB20(name: str, address: str, init_s_params: bool = True, reset_channels: bool = True, **kwargs: Unpack[VisaInstrumentKWArgs])

Bases: RohdeSchwarzZNBBase

QCoDeS driver for Rohde & Schwarz ZNB20

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzZNB8(name: str, address: str, init_s_params: bool = True, reset_channels: bool = True, **kwargs: Unpack[VisaInstrumentKWArgs])

Bases: RohdeSchwarzZNBBase

QCoDeS driver for Rohde & Schwarz ZNB8

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzZNBBase(name: str, address: str, init_s_params: bool = True, reset_channels: bool = True, **kwargs: Unpack[VisaInstrumentKWArgs])

Bases: VisaInstrument

Base class for QCoDeS driver for the Rohde & Schwarz ZNB8 and ZNB20 virtual network analyser. It can probably be extended to ZNB4 and 40 without too much work. This class should not be instantiated directly the RohdeSchwarzZNB8 and RohdeSchwarzZNB20 should be used instead.

Requires FrequencySweep parameter for taking a trace

Parameters:

• name – instrument name

• address – Address of instrument probably in format ‘TCPIP0::192.168.15.100::inst0::INSTR’

• init_s_params – Automatically setup channels for all S parameters on the VNA.

• reset_channels – If True any channels defined on the VNA at the time of initialization are reset and removed.

• **kwargs – passed to base class

Todo

• check initialisation settings and test functions

Classes:

CHANNEL_CLASS

alias of RohdeSchwarzZNBChannel

Attributes:

num_ports	Parameter num_ports
rf_power	Parameter rf_power
ref_osc_source	Reference oscillator source
ref_osc_external_freq	Frequency of the external reference clock signal at REF IN
ref_osc_PLL_locked	If an external reference signal or an internal high precision clock (option B4) is used, the local oscillator is phase locked to a reference signal.

Methods:

display_grid(rows, cols)	Display a grid of channels rows by columns.
add_channel(channel_name, **kwargs)
clear_channels()	Remove all channels from the instrument and channel list and unlock the channel list.

visabackend: str = visabackend

visa_handle: pyvisa.resources.MessageBasedResource = visa_handle

The VISA resource used by this instrument.

visalib: str | None = visalib

parameters: dict[str, ParameterBase] = {}

All the parameters supported by this instrument. Usually populated via add_parameter().

functions: dict[str, Function] = {}

All the functions supported by this instrument. Usually populated via add_function().

submodules: dict[str, InstrumentModule | ChannelTuple] = {}

All the submodules of this instrument such as channel lists or logical groupings of parameters. Usually populated via add_submodule().

instrument_modules: dict[str, InstrumentModule] = {}

All the InstrumentModule of this instrument Usually populated via add_submodule().

log: InstrumentLoggerAdapter = get_instrument_logger(self, __name__)

metadata: dict[str, Any] = {}

CHANNEL_CLASS

alias of RohdeSchwarzZNBChannel

num_ports: Parameter = self.add_parameter( name="num_ports", get_cmd="INST:PORT:COUN?", get_parser=int )

Parameter num_ports

rf_power: Parameter = self.add_parameter( name="rf_power", get_cmd="OUTP1?", set_cmd="OUTP1 {}", val_mapping={True: "1\n", False: "0\n"}, )

Parameter rf_power

ref_osc_source: Parameter = self.add_parameter( name="ref_osc_source", label="Reference oscillator source", get_cmd="ROSC:SOUR?", set_cmd="ROSC:SOUR {}", # strip newline get_parser=lambda s: s.rstrip(), vals=vals.Enum("INT", "EXT", "int", "ext", "internal", "external"), )

Reference oscillator source

ref_osc_external_freq: Parameter = self.add_parameter( name="ref_osc_external_freq", label="Reference oscillator frequency", docstring="Frequency of the external reference clock signal at REF IN", get_cmd="ROSC:EXT:FREQ?", set_cmd="ROSC:EXT:FREQ {}Hz", # The response contains the unit (Hz), so we have to strip it get_parser=lambda f: float(f.strip("Hz")), unit="Hz", # Data sheet: 1 MHz to 20 MHz, in steps of 1 MHz vals=vals.Enum(*np.linspace(1e6, 20e6, 20)), )

Frequency of the external reference clock signal at REF IN

ref_osc_PLL_locked: Parameter = self.add_parameter( name="ref_osc_PLL_locked", label="Reference frequency PLL lock", get_cmd=self._get_PLL_locked, docstring="If an external reference signal or an internal high " "precision clock (option B4) is used, the local oscillator is " "phase locked to a reference signal. This parameter will be " "False if the phase locked loop (PLL) fails. " "\n" "For external reference: check frequency and level of the " "supplied reference signal.", )

If an external reference signal or an internal high precision clock (option B4) is used, the local oscillator is phase locked to a reference signal. This parameter will be False if the phase locked loop (PLL) fails.

For external reference: check frequency and level of the supplied reference signal.

display_grid(rows: int, cols: int) → None

Display a grid of channels rows by columns.

add_channel(channel_name: str, **kwargs: Any) → None

clear_channels() → None

Remove all channels from the instrument and channel list and unlock the channel list.

class qcodes.instrument_drivers.rohde_schwarz.RohdeSchwarzZNBChannel(parent: RohdeSchwarzZNBBase, name: str, channel: int, vna_parameter: str | None = None, existing_trace_to_bind_to: str | None = None, **kwargs: Unpack[InstrumentBaseKWArgs])

Bases: InstrumentChannel

Parameters:

• parent – Instrument that this channel is bound to.

• name – Name to use for this channel.

• channel – channel on the VNA to use

• vna_parameter – Name of parameter on the vna that this should measure such as S12. If left empty this will fall back to name.

• existing_trace_to_bind_to – Name of an existing trace on the VNA. If supplied try to bind to an existing trace with this name rather than creating a new trace.

• **kwargs – Forwarded to base class.

Attributes:

vna_parameter	Parameter vna_parameter
power	Parameter power
bandwidth	Measurement bandwidth of the IF filter.
avg	Parameter avg
start	Parameter start
stop	Parameter stop
center	Parameter center
span	Parameter span
npts	Parameter npts
status	Parameter status
format	Parameter format
trace_mag_phase	Parameter trace_mag_phase
trace_db_phase	Parameter trace_db_phase
trace	Parameter trace
electrical_delay	Parameter electrical_delay
sweep_time	Parameter sweep_time
sweep_type	The sweep_type parameter is used to set the type of measurement sweeps.
cw_frequency	Parameter for setting frequency and querying for it when VNA sweep type is set to CW_Point mode.
cw_check_sweep_first	Parameter that enables a few commands which are called before each get in continuous wave mode checking whether the vna is setup correctly.
trace_fixed_frequency	Parameter trace_fixed_frequency
point_fixed_frequency	Parameter point_fixed_frequency
point_fixed_frequency_mag_phase	Parameter point_fixed_frequency_mag_phase
averaging_enabled	Parameter averaging_enabled
auto_sweep_time_enabled	When enabled, the (minimum) sweep time is calculated internally using the other channel settings and zero delay

Methods:

update_lin_traces()	Updates start, stop and npts of all trace parameters so that the x-coordinates are updated for the sweep.
update_cw_traces()	Updates the bandwidth and npts of all fixed frequency (CW) traces.
setup_cw_sweep()	This method sets the VNA to CW mode.
setup_lin_sweep()	Setup the instrument into linear sweep mode.

vna_parameter: Parameter = self.add_parameter( name="vna_parameter", label="VNA parameter", get_cmd=f"CALC{self._instrument_channel}:PAR:MEAS? '{self._tracename}'", get_parser=self._strip, )

Parameter vna_parameter

power: Parameter = self.add_parameter( name="power", label="Power", unit="dBm", get_cmd=f"SOUR{n}:POW?", set_cmd=f"SOUR{n}:POW {{:.4f}}", get_parser=float, vals=vals.Numbers(self._min_source_power, 25), )

Parameter power

bandwidth: Parameter = self.add_parameter( name="bandwidth", label="Bandwidth", unit="Hz", get_cmd=f"SENS{n}:BAND?", set_cmd=self._set_bandwidth, get_parser=int, vals=vals.Enum( *np.append(10**6, np.kron([1, 1.5, 2, 3, 5, 7], 10 ** np.arange(6))) ), docstring="Measurement bandwidth of the IF filter. " "The inverse of this sets the integration " "time per point. " "There is an 'increased bandwidth option' " "(p. 4 of manual) that does not get taken " "into account here.", )

Measurement bandwidth of the IF filter. The inverse of this sets the integration time per point. There is an ‘increased bandwidth option’ (p. 4 of manual) that does not get taken into account here.

avg: Parameter = self.add_parameter( name="avg", label="Averages", unit="", get_cmd=f"SENS{n}:AVER:COUN?", set_cmd=f"SENS{n}:AVER:COUN {{:.4f}}", get_parser=int, vals=vals.Ints(1, 5000), )

Parameter avg

start: Parameter = self.add_parameter( name="start", get_cmd=f"SENS{n}:FREQ:START?", set_cmd=self._set_start, get_parser=float, vals=vals.Numbers(self._parent._min_freq, self._parent._max_freq - 10), )

Parameter start

stop: Parameter = self.add_parameter( name="stop", get_cmd=f"SENS{n}:FREQ:STOP?", set_cmd=self._set_stop, get_parser=float, vals=vals.Numbers(self._parent._min_freq + 1, self._parent._max_freq), )

Parameter stop

center: Parameter = self.add_parameter( name="center", get_cmd=f"SENS{n}:FREQ:CENT?", set_cmd=self._set_center, get_parser=float, vals=vals.Numbers( self._parent._min_freq + 0.5, self._parent._max_freq - 10 ), )

Parameter center

span: Parameter = self.add_parameter( name="span", get_cmd=f"SENS{n}:FREQ:SPAN?", set_cmd=self._set_span, get_parser=float, vals=vals.Numbers(1, self._parent._max_freq - self._parent._min_freq), )

Parameter span

npts: Parameter = self.add_parameter( name="npts", get_cmd=f"SENS{n}:SWE:POIN?", set_cmd=self._set_npts, get_parser=int, )

Parameter npts

status: Parameter = self.add_parameter( name="status", get_cmd=f"CONF:CHAN{n}:MEAS?", set_cmd=f"CONF:CHAN{n}:MEAS {{}}", get_parser=int, )

Parameter status

format: Parameter = self.add_parameter( name="format", get_cmd=partial(self._get_format, tracename=self._tracename), set_cmd=self._set_format, val_mapping={ "dB": "MLOG\n", "Linear Magnitude": "MLIN\n", "Phase": "PHAS\n", "Unwr Phase": "UPH\n", "Polar": "POL\n", "Smith": "SMIT\n", "Inverse Smith": "ISM\n", "SWR": "SWR\n", "Real": "REAL\n", "Imaginary": "IMAG\n", "Delay": "GDEL\n", "Complex": "COMP\n", }, )

Parameter format

trace_mag_phase: FrequencySweepMagPhase = self.add_parameter( name="trace_mag_phase", start=self.start(), stop=self.stop(), npts=self.npts(), channel=n, parameter_class=FrequencySweepMagPhase, )

Parameter trace_mag_phase

trace_db_phase: FrequencySweepDBPhase = self.add_parameter( name="trace_db_phase", start=self.start(), stop=self.stop(), npts=self.npts(), channel=n, parameter_class=FrequencySweepDBPhase, )

Parameter trace_db_phase

trace: FrequencySweep = self.add_parameter( name="trace", start=self.start(), stop=self.stop(), npts=self.npts(), channel=n, parameter_class=FrequencySweep, )

Parameter trace

electrical_delay: Parameter = self.add_parameter( name="electrical_delay", label="Electrical delay", get_cmd=f"SENS{n}:CORR:EDEL2:TIME?", set_cmd=f"SENS{n}:CORR:EDEL2:TIME {{}}", get_parser=float, unit="s", )

Parameter electrical_delay

sweep_time: Parameter = self.add_parameter( name="sweep_time", label="Sweep time", get_cmd=f"SENS{n}:SWE:TIME?", get_parser=float, unit="s", )

Parameter sweep_time

sweep_type: Parameter = self.add_parameter( name="sweep_type", get_cmd=f"SENS{n}:SWE:TYPE?", set_cmd=self._set_sweep_type, val_mapping={ "Linear": "LIN\n", "Logarithmic": "LOG\n", "Power": "POW\n", "CW_Time": "CW\n", "CW_Point": "POIN\n", "Segmented": "SEGM\n", }, docstring="The sweep_type parameter is used to set " "the type of measurement sweeps. It " "allows switching the default linear " "VNA sweep type to other types. Note that " "at the moment only the linear and " "CW_Point modes have supporting " "measurement parameters.", )

The sweep_type parameter is used to set the type of measurement sweeps. It allows switching the default linear VNA sweep type to other types. Note that at the moment only the linear and CW_Point modes have supporting measurement parameters.

cw_frequency: Parameter = self.add_parameter( name="cw_frequency", get_cmd=f"SENS{n}:FREQ:CW?", set_cmd=self._set_cw_frequency, get_parser=float, vals=vals.Numbers( self._parent._min_freq + 0.5, self._parent._max_freq - 10 ), docstring="Parameter for setting frequency and " "querying for it when VNA sweep type is " "set to CW_Point mode.", )

Parameter for setting frequency and querying for it when VNA sweep type is set to CW_Point mode.

cw_check_sweep_first: ManualParameter = self.add_parameter( "cw_check_sweep_first", parameter_class=ManualParameter, initial_value=True, vals=vals.Bool(), docstring="Parameter that enables a few commands " "which are called before each get in " "continuous wave mode checking whether " "the vna is setup correctly. Is recommended " "to be turned, but can be turned off if " "one wants to minimize overhead in fast " "measurements. ", )

Parameter that enables a few commands which are called before each get in continuous wave mode checking whether the vna is setup correctly. Is recommended to be turned, but can be turned off if one wants to minimize overhead in fast measurements.

trace_fixed_frequency: FixedFrequencyTraceIQ = self.add_parameter( name="trace_fixed_frequency", npts=self.npts(), bandwidth=self.bandwidth(), parameter_class=FixedFrequencyTraceIQ, )

Parameter trace_fixed_frequency

point_fixed_frequency: FixedFrequencyPointIQ = self.add_parameter( name="point_fixed_frequency", parameter_class=FixedFrequencyPointIQ )

Parameter point_fixed_frequency

point_fixed_frequency_mag_phase: FixedFrequencyPointMagPhase = ( self.add_parameter( name="point_fixed_frequency_mag_phase", parameter_class=FixedFrequencyPointMagPhase, ) )

Parameter point_fixed_frequency_mag_phase

averaging_enabled: Parameter = self.add_parameter( name="averaging_enabled", initial_value=False, get_cmd=None, set_cmd=self._enable_averaging, vals=vals.Bool(), val_mapping=create_on_off_val_mapping(on_val="ON", off_val="OFF"), )

Parameter averaging_enabled

auto_sweep_time_enabled: Parameter = self.add_parameter( name="auto_sweep_time_enabled", initial_value=False, get_cmd=None, set_cmd=self._enable_auto_sweep_time, vals=vals.Bool(), val_mapping=create_on_off_val_mapping(on_val="ON", off_val="OFF"), docstring="When enabled, the (minimum) sweep time is " "calculated internally using the other channel settings " "and zero delay", )

When enabled, the (minimum) sweep time is calculated internally using the other channel settings and zero delay

parameters: dict[str, ParameterBase] = {}

All the parameters supported by this instrument. Usually populated via add_parameter().

functions: dict[str, Function] = {}

All the functions supported by this instrument. Usually populated via add_function().

submodules: dict[str, InstrumentModule | ChannelTuple] = {}

All the submodules of this instrument such as channel lists or logical groupings of parameters. Usually populated via add_submodule().

instrument_modules: dict[str, InstrumentModule] = {}

All the InstrumentModule of this instrument Usually populated via add_submodule().

log: InstrumentLoggerAdapter = get_instrument_logger(self, __name__)

metadata: dict[str, Any] = {}

update_lin_traces() → None

Updates start, stop and npts of all trace parameters so that the x-coordinates are updated for the sweep.

update_cw_traces() → None

Updates the bandwidth and npts of all fixed frequency (CW) traces.

setup_cw_sweep() → None

This method sets the VNA to CW mode. CW Mode sweeps are performed at fixed frequency and allow to perform measurements versus time instead of versus frequency. See (https://www.rohde-schwarz.com/webhelp/ZNB_ZNBT_HTML_UserManual_en /ZNB_ZNBT_HTML_UserManual_en.htm) under GUI reference -> sweep softtool -> sweep type tab -> CW mode

setup_lin_sweep() → None

Setup the instrument into linear sweep mode.