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Frequency Response Analyzer

Formerly called Bode Analyzer

One of twelve instruments available on Moku:Lab

MokuLab-Silver-On-WhiteBG.jpg
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Frequency Response Analyzer

Formerly called Bode Analyzer

One of twelve instruments
available on Moku:Lab

MokuLab-Silver-On-WhiteBG.jpg

Frequency range (up to)

120 MHz

Input impedance

50 Ω or 1 MΩ

Averaging time

1 µs to 10 s

Output voltage range

±2 V into 50 Ω

How can we assist?

Ask Us Anything
Contact Sales Team

How can we assist?

Ask Us Anything
Contact Sales Team

Frequency Response Analyzer overview

Moku:Lab’s Frequency Response Analyzer can be used to measure a system’s frequency response from 10 mHz up to 120 MHz.

Features


  • Linear or logarithmic swept sine output
  • Probe two systems simultaneously, or one system at two points
  • Math channel to add, subtract, multiply or divide response functions as they are acquired
  • Monitor the magnitude and phase on the interactive Bode plot
  • Use cursors and markers to measure exact values on the plots
  • Precisely adjust settling and averaging time to suit device under test
  • Save a calibration trace to compare systems or remove spurious cable shifts
  • Easily save data and upload to the cloud

Specifications


  • Frequency range: 10 mHz to 120 MHz
  • 50 Ω / 1 MΩ input impedance
  • Variable averaging time (1 µs - 10 s)
  • Variable settling time (1 µs - 10 s)
  • Linear/logarithmic sweep
Download User Manual

Frequency Response Analyzer overview

Moku:Lab’s Frequency Response Analyzer can be used to measure a system’s frequency response from 10 mHz up to 120 MHz.

Features


  • Linear or logarithmic swept sine output
  • Probe two systems simultaneously, or one system at two points
  • Math channel to add, subtract, multiply or divide response functions as they are acquired
  • Monitor the magnitude and phase on the interactive Bode plot
  • Use cursors and markers to measure exact values on the plots
  • Precisely adjust settling and averaging time to suit device under test
  • Save a calibration trace to compare systems or remove spurious cable shifts
  • Easily save data and upload to the cloud

Specifications


  • Frequency range: 10 mHz to 120 MHz
  • 50 Ω / 1 MΩ input impedance
  • Variable averaging time (1 µs - 10 s)
  • Variable settling time (1 µs - 10 s)
  • Linear/logarithmic sweep
Download User Manual
FrequencyResponseAnalyzer-TabletView.jpg

Badge-AppStore.png Badge-Python.png Badge-MATLAB.png Badge-LabVIEW.png

Wirelessly configure and monitor the magnitude and phase of your system’s transfer
function, all from an intuitive iPad interface, or with Python, MATLAB, and LabVIEW.

FrequencyResponseAnalyzer-TabletView.jpg

Badge-AppStore.png Badge-Python.png
Badge-MATLAB.png Badge-LabVIEW.png

Wirelessly configure and monitor the magnitude and phase of your system’s transfer function, all from an intuitive iPad interface, or with Python, MATLAB, and LabVIEW.

Measurements made easy

Quickly measure key features in your system’s magnitude and phase response with draggable cursors.

Fine tune your measurements

Optimize measurement quality by configuring the Frequency Response Analyzer’s output voltage level, sweep range and scale, averaging time and settling time.

Auto-calibration

Isolate the magnitude and phase response of the system under test by calibrating out intrinsic delays and magnitude errors introduced by cables and Moku:Lab itself.

Measurements made easy

Quickly measure key features in your system’s magnitude and phase response with draggable cursors.

Fine tune your measurements

Optimize measurement quality by configuring the Frequency Response Analyzer’s output voltage level, sweep range and scale, averaging time and settling time.

Auto-calibration

Isolate the magnitude and phase response of the system under test by calibrating out intrinsic delays and magnitude errors introduced by cables and Moku:Lab itself.

F.A.Q.


  • How can I plot the ratio of Input 1 and Input 2?

    By default, each channel shows the ratio of the input to the output, In / Out. This is useful for measuring the transfer function of a device under test. The math channel allows you to plot different combinations of Ch 1 and Ch 2. If the output amplitudes of both channels are set to the same value, then viewing the math channel as Ch 1 / Ch 2 will show the ratio In 1 / In 2, since the outputs are the same.


F.A.Q.


  • How can I plot the ratio of Input 1 and Input 2?

    By default, each channel shows the ratio of the input to the output, In / Out. This is useful for measuring the transfer function of a device under test. The math channel allows you to plot different combinations of Ch 1 and Ch 2. If the output amplitudes of both channels are set to the same value, then viewing the math channel as Ch 1 / Ch 2 will show the ratio In 1 / In 2, since the outputs are the same.


Want your own?

Contact Us
Buy Now

Want your own?

Contact Us
Buy Now