RFmxPulseMXPropertyId Enumeration

Specifies the instrument port to be configured to acquire a signal. Use RFmxInstr_GetAvailablePorts function to get the valid port names.

Specifies the expected carrier frequency of the acquired RF signal. This value is expressed in Hz. The signal analyzer tunes to this frequency.

Specifies the reference level that represents the maximum expected power of the RF input signal. This value is expressed in dBm for RF devices and Vpk-pk for baseband devices.

Specifies the attenuation of a switch or cable connected to the RF IN connector of the signal analyzer. This value is expressed in dB. For more information about attenuation, refer to the RF Attenuation and Signal Levels topic for your device in the NI RF Vector Signal Analyzers Help.

Specifies the margin RFmx adds to the ReferenceLevel method. The margin avoids clipping and overflow warnings if the input signal exceeds the configured reference level.

Specifies the trigger type.

Specifies the source terminal for the digital edge trigger. This method is used only when you set the TriggerType method to DigitalEdge.

Specifies the active edge for the trigger. This method is used only when you set the TriggerType method to DigitalEdge.

Specifies the channel from which the device monitors the trigger. This method is used only when you set the TriggerType method to IQPowerEdge.

Specifies the power level at which the device triggers. This value is expressed in dB when you set the IQPowerEdgeTriggerLevelType method to Relative and in dBm when you set the IQ Power Edge Level Type method to Absolute. The device asserts the trigger when the signal exceeds the level specified by the value of this method, taking into consideration the specified slope. This method is used only when you set the TriggerType method to IQPowerEdge.

Specifies the reference for the IQPowerEdgeTriggerLevel method. The IQ Power Edge Level Type method is used only when you set the TriggerType method to IQPowerEdge.

Specifies whether the device asserts the trigger when the signal power is rising or when it is falling. The device asserts the trigger when the signal power exceeds the level that you specify in the IQPowerEdgeTriggerLevel method with the slope you specify. This method is used only when you set the TriggerType method to IQPowerEdge.

Specifies the trigger delay time. This value is expressed in seconds.If the delay is negative, the measurement acquires pretrigger samples. If the delay is positive, the measurement acquires post-trigger samples.

Specifies whether the measurement computes the minimum quiet time used for triggering.

Specifies the time duration for which the signal must be quiet before the signal analyzer arms the I/Q power edge trigger. This value is expressed in seconds. If you set the IQPowerEdgeTriggerSlope method to Rising, the signal is quiet below the trigger level. If you set the IQ Power Edge Slope method to Falling, the signal is quiet above the trigger level.

Specifies the bandwidth of the filter used for the required sample rate. This value is expressed in Hz.

Specifies the demodulation filter type to be used in the measurements.

Specifies the acquisition length for the pulse measurement. This value is expressed in seconds.You configure this method when you set the SegmentedAcquisitionEnabled method to False.

Specifies whether to enable the maximum pulse count for pulse measurements.You must configure this method when you set the SegmentedAcquisitionEnabled method to False.

Specifies the maximum number of pulses to be measured when you set the MaximumPulseCountEnabled method to True.

Specifies whether to enable Segmented Acquisition. This mode is best applied when the pulses are sparsely spaced.

Specifies the number of segments to acquire when you set the SegmentedAcquisitionEnabled method to True.

Specifies the acquisition length for the pulse measurement when you set the SegmentedAcquisitionEnabled method to True. This value is expressed in seconds.

Specifies whether pulse measurements are enabled..

Specifies whether to enable pulse measurements on the multiple burst transmission.

Specifies the number of pulses assigned to a single burst.

Specifies the reference used for SetDetectionThreshold(string, double) method.

Specifies the threshold used for pulse detection. The unit dB or dBm is based on the value you set to the SetDetectionReference(string, RFmxPulseMXPulseDetectionReference) method.

Specifies the hysteresis for pulse detection in dB for the defined threshold.

Specifies the minimum pulse off duration to be ignored by the pulse detection. This value is expressed in seconds.

Specifies the minimum pulse width time to be considered for pulse detection. Any detected pulse width time below the specified value will be ignored by the pulse detection. This value is expressed in seconds.

Specifies the maximum pulse width time to be considered for pulse detection. Any detected pulse width time above the specified value will be ignored by the pulse detection. This value is expressed in seconds.

Specifies whether to enable pulse metrics results computation.

Specifies the unit for amplitude deviation results. This method is applicable only for droop, ripple and overshoot results.

Specifies the algorithm used to detect the pulse levels. The algorithm is based on the histogram method of level detection as defined in IEEE Std 181-2011.

Specifies whether voltage or power to be used as domain for pulse measurements.

Specifies the upper threshold level as a percentage of the pulse amplitude used to signify the end of a rising edge or beginning of a falling edge.

Specifies the middle threshold level as a percentage of the pulse amplitude used to signify the mid-transition level between pulse states used for pulse width computation.

Specifies the lower threshold level as a percentage of the pulse amplitude used to signify the start of a rising or end of a falling edge.

Specifies whether to compensate the droop detected in pulse level when applying thresholds.

Specifies the reference used for the measurement point calculation, in phase, frequency, and stability measurements. You can set measurement point based on a reference and offset.

Specifies the time offset of the measurement point within the pulse for phase, frequency, and stability measurements.

Specifies the length of the averaging window centered at the measurement point. A minimum of 1 sample is used internally.

Specifies whether to enable pulse stability measurements on multiple measurement points. This method is used to enable the multiple measurement points stability trace when you set the All Traces Enabled method to TRUE.

Specifies the start of the measurement window used for multiple measurement points selection over pulse ON duration.

Specifies the stop of the measurement window used for multiple measurement points selection over pulse ON duration.

Specifies the step size of multiple measurement points selection within the measurement window over pulse ON duration. A minimum of 1 sample step size is used internally.

Specifies the reference used for the measurement range in phase/frequency deviation and error measurements.

Specifies the length of the pulse data used for the phase/frequency deviation and error measurements when you set the SetFrequencyAndPhaseDeviationRangeReference(string, RFmxPulseMXPulseFrequencyAndPhaseDeviationRangeReference) method to Center.

Specifies the start of the pulse data used for the phase/frequency deviation and error measurements when you set the SetFrequencyAndPhaseDeviationRangeReference(string, RFmxPulseMXPulseFrequencyAndPhaseDeviationRangeReference) method to Edge.

Specifies the stop of the pulse data used for the phase/frequency deviation and error measurements when you set the SetFrequencyAndPhaseDeviationRangeReference(string, RFmxPulseMXPulseFrequencyAndPhaseDeviationRangeReference) method to Edge.

Specifies the pulse modulation type used for the phase and frequency error, and pulsed FM Measurement.

Specifies whether the CW frequency offset computation of every detected pulse is automatic or manual. This method is valid only when you set the SetFrequencyAndPhaseModulationType(string, RFmxPulseMXPulseModulationType) method to CW.

Specifies to manually enter the CW frequency offset. This method is valid only when you set the SetFrequencyAndPhaseModulationType(string, RFmxPulseMXPulseModulationType) method to CW.

Specifies whether to enable pulse stability results computation.

Specifies the offset in number of pulses to be used for pulse stability measurement. This method is applicable for average stability results and pulse-to-pulse stabilty trace.

Specifies the offset in number of pulses used for pulse stability reference computation.

Specifies the offset in number of pulses used for pulse-to-pulse stability measurement trace.

Specifies whether to compute and correct the frequency offset for stability results computation. This is an optional setting and in negligible frequency error condition you must set this method to Off to avoid incorrect results.

Specifies whether to enable pulse time sidelobe results computation.

Specifies the window type to be applied to the reference pulse to obtain correlated output for the time sidelobe measurements.

Specifies whether the keep out time computation for the time sidelobe measurements is automatic or manual.

Specifies keep out time for the time sidelobe measurements.

Specifies the minimum peak correlation value for the time sidelobe measurements.

Specifies whether to enable storing and retrieving traces after performing the measurements.

Specifies the mode to select all pulses or the subset of acquired pulses available for display acquisition trace, limited to MaximumPulseCountEnabled method if set to True.

Specifies the offset in number of pulses to be used for display acquisition trace. You must configure this method when you set the PulseAcquisitionTraceSelect method to Subset.

Specifies the total number of pulses starting from offset to be used for display acquisition trace. You must configure this method when you set the PulseAcquisitionTraceSelect method to Subset. Set length to 0 to disable the acquisition trace.

Specifies whether the trace range computation of the selected pulse is automatic or manually configured by you.

Specifies the reference point for positioning of trace range. You can set reference point based on reference and Pulse Trace Range Offset (s) value.

Specifies the time offset in seconds from the reference point to position the trace range.

Specifies the length in seconds of the trace range centered at the reference point.

Specifies the burst number selected for the display of traces. This method is applicable for IQ, amplitude and pulse stability traces.

Specifies the pulse number selected for displaying the traces. This method is valid only for IQ, amplitude and pulse stability traces.

Specifies the unit of the amplitude level. This method is applicable only for the amplitude and acquired amplitude trace.

Specifies the maximum number of threads used for parallelism for the pulse measurement.

Returns the measured pulse count.

Returns the burst indices of all the measured pulses.

Returns the position indices of all the measured pulses within a burst.

Returns the top levels for all measured pulses. The values are expressed in dBm.

Returns the mean of the top levels across the measured pulses. This value is expressed in dBm.

Returns the maximum top level across the measured pulses. This value is expressed in dBm.

Returns the minimum top level across the measured pulses. This value is expressed in dBm.

Returns the standard deviation of the top levels across the measured pulses. This value is expressed in dBm.

Returns the base levels for all measured pulses. The values are expressed in dBm.

Returns the mean of the base levels across the measured pulses. This value is expressed in dBm.

Returns the maximum base level across the measured pulses. This value is expressed in dBm.

Returns the minimum base level across the measured pulses. This value is expressed in dBm.

Returns the standard deviation of the base levels across the measured pulses. This value is expressed in dBm.

Returns the average power levels during the ON duration for all measured pulses. The values are expressed in dBm.

Returns the mean of the average power levels during the ON duration across the measured pulses. This value is expressed in dBm.

Returns the maximum average power level during the ON duration across the measured pulses. This value is expressed in dBm.

Returns the minimum average power level during the ON duration across the measured pulses. This value is expressed in dBm.

Returns the standard deviation of the average power levels during the ON duration across the measured pulses. This value is expressed in dBm.

Returns the peak power levels during the pulse period for all measured pulses. The values are expressed in dBm.

Returns the mean of the peak power levels during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the maximum peak power level during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the minimum peak power level during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the standard deviation of the peak power levels during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the average power levels during the pulse period for all measured pulses. The values are expressed in dBm.

Returns the mean of the average power levels during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the maximum average power level during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the minimum average power level during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the standard deviation of the average power levels during the pulse period across the measured pulses. This value is expressed in dBm.

Returns the overshoot values computed for all measured pulses. The overshoot value is defined as the ratio of height of the local peak after a rising edge to the pulse amplitude. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the mean of the overshoot values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the maximum of overshoot values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the minimum of overshoot values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the standard deviation of the overshoot values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the droop values computed for all measured pulses. Droop values are defined as the rate at which the pulse top levels decays from the beginning to the end during On duration. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the mean of the droop values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the maximum of droop values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the minimum of droop values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the standard deviation of the droop values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the ripple values computed for all measured pulses. Ripple values are the difference between the maximum and minimum deviation from the pulse top reference. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the mean of the ripple values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the maximum of ripple values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the minimum of ripple values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the standard deviation of the ripple values computed for all measured pulses. This value is expressed in units specified by SetMetricsAmplitudeDeviationUnit(string, RFmxPulseMXPulseMetricsAmplitudeDeviationUnit) method.

Returns the rise time for all measured pulses. Rise time is the difference between the time when the pulse exceeds the lower and upper thresholds. This value is expressed in seconds.

Returns the mean of the rise time values across the measured pulses. This value is expressed in seconds.

Returns the maximum rise time across the measured pulses. This value is expressed in seconds.

Returns the minimum rise time across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of the rise time values across the measured pulses. This value is expressed in seconds.

Returns the rise edge for all measured pulses. Rise edge is the absolute time instant when the pulse exceeds the rising edge lower threshold. This value is expressed in seconds.

Returns the fall time for all measured pulses. Fall time is the difference between the time when the pulse drops below the upper and lower thresholds. This value is expressed in seconds.

Returns the mean of the fall time values across the measured pulses. This value is expressed in seconds.

Returns the maximum fall time across the measured pulses. This value is expressed in seconds.

Returns the minimum fall time across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of the fall time values across the measured pulses. This value is expressed in seconds.

Returns the fall edge for all measured pulses. Fall edge is the absolute time instant when the pulse exceeds the falling edge width threshold. This value is expressed in seconds.

Returns the ON duration for all measured pulses. ON duration value is the duration of the pulse for the first rising-edge and the subsequent falling-edge transition at width threshold. This value is expressed in seconds.

Returns the mean of the ON duration values across the measured pulses. This value is expressed in seconds.

Returns the maximum ON duration across the measured pulses. This value is expressed in seconds.

Returns the minimum ON duration across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of ON duration values across the measured pulses. This value is expressed in seconds.

Returns the OFF duration values for all measured pulses. OFF duration value is the duration of the pulse for the first falling-edge and the subsequent rising-edge transition at width threshold. This value is expressed in seconds.

Returns the mean of the OFF duration values across the measured pulses. This value is expressed in seconds.

Returns the maximum OFF duration across the measured pulses. This value is expressed in seconds.

Returns the minimum OFF duration across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of OFF duration values across the measured pulses. This value is expressed in seconds.

Returns the duty cycle values for all measured pulses. Duty cycle is the ratio of pulse ON duration to the pulse period. This value is expressed as a percentage.

Returns the mean of duty cycle values across the measured pulses. This value is expressed as a percentage.

Returns the maximum duty cycle across the measured pulses. This value is expressed as a percentage.

Returns the minimum duty cycle across the measured pulses. This value is expressed as a percentage.

Returns the standard deviation of duty cycle values across the measured pulses. This value is expressed as a percentage.

Returns the pulse period values for all measured pulses. Period values are the time difference between two consecutive transitions of the same polarity, either positive or negative, where the transitions occur at crossings of the width threshold.This value is expressed in seconds.

Returns the mean of pulse period values across the measured pulses. This value is expressed in seconds.

Returns the maximum pulse period across the measured pulses. This value is expressed in seconds.

Returns the minimum pulse period across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of pulse period values across the measured pulses. This value is expressed in seconds.

Returns the average phase for all measured pulses. This value is expressed in degrees.

Returns the mean of the average phase across the measured pulses. This value is expressed in degrees.

Returns the maximum average phase across the measured pulses. This value is expressed in degrees.

Returns the minimum average phase across the measured pulses. This value is expressed in degrees.

Returns the standard deviation of the average phase across the measured pulses. This value is expressed in degrees.

Returns the phase difference of the pulses with respect to the phase of the first pulse. This value is expressed in degrees.

Returns the mean of the pulse-to-pulse phase difference across the measured pulses. This value is expressed in degrees.

Returns the maximum pulse-to-pulse phase difference across the measured pulses. This value is expressed in degrees.

Returns the minimum pulse-to-pulse phase difference across the measured pulses. This value is expressed in degrees.

Returns the standard deviation of the pulse-to-pulse phase difference across the measured pulses. This value is expressed in degrees.

Returns the peak-to-peak phase deviation for all measured pulses. This value is expressed in degrees.

Returns the mean of the peak-to-peak phase deviation across the measured pulses. This value is expressed in degrees.

Returns the maximum peak-to-peak phase deviation across the measured pulses. This value is expressed in degrees.

Returns the minimum peak-to-peak phase deviation across the measured pulses. This value is expressed in degrees.

Returns the standard deviation of the peak-to-peak phase deviation across the measured pulses. This value is expressed in degrees.

Returns the RMS phase error for all measured pulses. This value is expressed in degrees.

Returns the mean of the RMS phase error across the measured pulses. This value is expressed in degrees.

Returns the maximum RMS phase error across the measured pulses. This value is expressed in degrees.

Returns the minimum RMS phase error across the measured pulses. This value is expressed in degrees.

Returns the standard deviation of the RMS phase errors across the measured pulses. This value is expressed in degrees.

Returns the peak phase error for all measured pulses. This value is expressed in degrees.

Returns the mean of the peak phase error across the measured pulses. This value is expressed in degrees.

Returns the maximum peak phase error across the measured pulses. This value is expressed in degrees.

Returns the minimum peak phase error across the measured pulses. This value is expressed in degrees.

Returns the standard deviation of the peak phase error across the measured pulses. This value is expressed in degrees.

Returns the time locations corresponding to the peak phase error for all measured pulses. This value is expressed in seconds.

Returns the average frequencie for all measured pulses. This value is expressed in Hz.

Returns the mean of the average frequency across the measured pulses. This value is expressed in Hz.

Returns the maximum average frequency across the measured pulses. This value is expressed in Hz.

Returns the minimum average frequency across the measured pulses. This value is expressed in Hz.

Returns the standard deviation of the average frequency across the measured pulses. This value is expressed in Hz.

Returns the frequency difference of the pulses with respect to the frequency of the first pulse. This value is expressed in Hz.

Returns the mean of the pulse-to-pulse frequency difference across the measured pulses. This value is expressed in Hz.

Returns the maximum pulse-to-pulse frequency difference across the measured pulses. This value is expressed in Hz.

Returns the minimum pulse-to-pulse frequency difference across the measured pulses. This value is expressed in Hz.

Returns the standard deviation of the pulse-to-pulse frequency difference across the measured pulses. This value is expressed in Hz.

Returns the peak-to-peak frequency deviation for all measured pulses. This value is expressed in Hz.

Returns the mean of the peak-to-peak phase deviation across the measured pulses. This value is expressed in Hz.

Returns the maximum peak-to-peak phase deviation across the measured pulses. This value is expressed in Hz.

Returns the minimum peak-to-peak frequency deviation across the measured pulses. This value is expressed in Hz.

Returns the standard deviation of the peak-to-peak frequency deviation across the measured pulses. This value is expressed in Hz.

Returns the RMS frequency error for all measured pulses. This value is expressed in Hz.

Returns the mean of the RMS frequency error across the measured pulses. This value is expressed in Hz.

Returns the maximum RMS frequency error across the measured pulses. This value is expressed in Hz.

Returns the minimum RMS frequency error across the measured pulses. This value is expressed in Hz.

Returns the standard deviation of the RMS frequency error across the measured pulses. This value is expressed in Hz.

Returns the peak frequency error for all measured pulses. This value is expressed in Hz.

Returns the mean of the peak frequency error across the measured pulses. This value is expressed in Hz.

Returns the maximum peak frequency error across the measured pulses. This value is expressed in Hz.

Returns the minimum peak frequency error across the measured pulses. This value is expressed in Hz.

Returns the standard deviation of the peak frequency error across the measured pulses. This value is expressed in Hz.

Returns the time locations corresponding to the peak frequency error of the measured pulses. This value is expressed in seconds.

Returns the frequency slope rate of a best-fit linear least square regression line measured over user specified sample analysis time interval as determined by Pulse Freq Phase Dev Range Length (%) method for each pulse. This value is expressed in Hz/us.This result is valid for linear FM and triangular FM modulation.

Returns the mean of the FM chirp rates across the measured pulses. This value is expressed in Hz/us.This result is valid for linear FM and triangular FM modulation.

Returns the maximum FM chirp rate across the measured pulses. This value is expressed in Hz/us.This result is valid for linear FM and triangular FM modulation.

Returns the minimum FM chirp rate across the measured pulses. This value is expressed in Hz/us.This result is valid for linear FM and triangular FM modulation.

Returns the standard deviation of the FM chirp rates across the measured pulses. This value is expressed in Hz/us.This result is valid for linear FM and triangular FM modulation.

Returns the start frequencies of the best-fit linear least square regression line measured over user specified sample analysis time interval as determined by Pulse Freq Phase Dev Range Length (%) method for the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the mean of the FM chirp start frequency across the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the maximum FM chirp start frequency among the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the minimum FM chirp start frequency among the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the FM chirp start frequency standard deviation across the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the stop frequencies of the best-fit linear least square regression line measured over user specified sample analysis time interval as determined by Pulse Freq Phase Dev Range Length (%) method for the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the mean of the FM chirp stop frequency across the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the maximum FM chirp stop frequency among the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the minimum FM chirp stop frequency among the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the FM chirp stop frequency standard deviation across the measured pulses. This value is expressed in Hz. This result is valid for linear FM and triangular FM modulation.

Returns the frequency slope rate of the 2nd best-fit linear least square regression line measured over user specified sample analysis time interval as determined by Pulse Freq Phase Dev Range Length (%) method for the measured pulses. This value is expressed in Hz/us.This result is valid only for triangular FM modulation.

Returns the mean of the FM chirp rate2 values across the measured pulses. This value is expressed in Hz/us.This result is valid only for triangular FM modulation.

Returns the maximum FM chirp rate2 value across the measured pulses. This value is expressed in Hz/us.This result is valid only for triangular FM modulation.

Returns the minimum FM chirp rate2 value across the measured pulses. This value is expressed in Hz/us.This result is valid only for triangular FM modulation.

Returns the standard deviation of the FM chirp rate2 values across the measured pulses. This value is expressed in Hz/us.This result is valid only for triangular FM modulation.

Returns the start frequency of the 2nd best-fit linear least square regression line measured over user specified sample analysis time interval as determined by Pulse Freq Phase Dev Range Length (%) method for the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the mean of the FM chirp start frequency2 across the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the maximum FM chirp start frequency2 among the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the minimum FM chirp start frequency2 among the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the FM chirp start frequency2 standard deviation across the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the stop frequency of the 2nd best-fit linear least square regression line measured over user specified sample analysis time interval as determined by Pulse Freq Phase Dev Range Length (%) method for the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the mean of the FM chirp stop frequency2 across the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the maximum FM chirp stop frequency2 among the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the minimum FM chirp stop frequency2 among the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the FM chirp stop frequency2 standard deviation across the measured pulses. This value is expressed in Hz. This result is valid only for triangular FM modulation.

Returns the average amplitude stability over the measured pulses. This value is expressed in dB.The stability is computed as the variance of the amplitude over the measured pulses.

Returns the average phase stability over the measured pulses. This value is expressed in dB.The stability is computed as the variance of the phase over the measured pulses.

Returns the average total stability over measured pulses. This value is expressed in dB.

Returns the amplitude stability of the measured pulses. This value is expressed in dB.This value is computed as the deviation of amplitude from the reference.

Returns the mean of the amplitude stability values across the measured pulses. This value is expressed in dB.

Returns the maximum amplitude stability across the measured pulses. This value is expressed in dB.

Returns the minimum amplitude stability across the measured pulses. This value is expressed in dB.

Returns the amplitude stability standard deviation across the measured pulses. This value is expressed in dB.

Returns the phase stability of the measured pulses. This value is expressed in dB.This value is computed as the deviation of phase from the reference.

Returns the mean of the phase stability values across the measured pulses. This value is expressed in dB.

Returns the maximum phase stability across the measured pulses. This value is expressed in dB.

Returns the minimum phase stability across the measured pulses. This value is expressed in dB.

Returns the phase stability standard deviation across the measured pulses. This value is expressed in dB.

Returns the total stability of the measured pulses. This value is expressed in dB.

Returns the mean of the total stability values across the measured pulses. This value is expressed in dB.

Returns the maximum total stability across the measured pulses. This value is expressed in dB.

Returns the minimum total stability across the measured pulses. This value is expressed in dB.

Returns the total stability standard deviation across the measured pulses. This value is expressed in dB.

Returns the mainlobe width for all measured pulses. Mainlobe width is the width at 3dB below from its peak level. This value is expressed in seconds.

Returns the mean of the mainlobe width values across the measured pulses. This value is expressed in seconds.

Returns the maximum mainlobe width across the measured pulses. This value is expressed in seconds.

Returns the minimum mainlobe width across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of the mainlobe width values across the measured pulses. This value is expressed in seconds.

Returns the sidelobe delay for all measured pulses. Sidelobe delay is the time elapsed between the highest sidelobe peak and mainlobe peak level. This value is expressed in seconds.

Returns the mean of the sidelobe delay values across the measured pulses. This value is expressed in seconds.

Returns the maximum sidelobe delay across the measured pulses. This value is expressed in seconds.

Returns the minimum sidelobe delay across the measured pulses. This value is expressed in seconds.

Returns the standard deviation of the sidelobe delay values across the measured pulses. This value is expressed in seconds.

Returns the peak sidelobe level for all measured pulses. Peak sidelobe level is the ratio of the highest sidelobe peak to the mainlobe peak level. This value is expressed in dB.

Returns the mean of the peak sidelobe level values across the measured pulses. This value is expressed in dB.

Returns the maximum peak sidelobe level across the measured pulses. This value is expressed in seconds.

Returns the minimum peak sidelobe level across the measured pulses. This value is expressed in dB.

Returns the standard deviation of the peak sidelobe level values across the measured pulses. This value is expressed in dB.

Returns the compression ratio for all measured pulses. Compression ratio is the ratio of the mainlobe width to the pulse width. This value is expressed as a percentage.

Returns the mean of the compression ratio values across the measured pulses. This value is expressed as a percentage.

Returns the maximum compression ratio across the measured pulses. This value is expressed as a percentage.

Returns the minimum compression ratio across the measured pulses. This value is expressed as a percentage.

Returns the standard deviation of the compression ratio values across the measured pulses. This value is expressed as a percentage.

Returns the peak correlation for all measured pulses. Peak correlation is the normalized peak power of the correlated output by both measured and reference pulse powers. This values ranges in between 0 to 1.

Returns the mean of the peak correlation values across the measured pulses.

Returns the maximum peak correlation across the measured pulses.

Returns the minimum peak correlation across the measured pulses.

Returns the standard deviation of the peak correlation values across the measured pulses.

Specifies the initial reference level, in dBm, which the AutoLevel(string, double, double, out double) function uses to estimate the peak power of the input signal.

Specifies the wait time before results are available in the RFmx Property. This value is expressed in seconds. Set this value to a time longer than expected for fetching the measurement. A value of -1 specifies that the RFmxPulse Property Node waits until the measurement is complete.