RadiMation Application Note 104: Difference between revisions

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= Current sensor calibration using Conducted Immunity Fixed Power =
= How to determine the current sensor transfer impedance =
This Application Note explains how measurements can be done in {{RadiMation}} to calibrate a current sensor. These measurements can be done by using the [[Conducted Immunity]] Fixed power test.
The transfer impedance of a current sensor is important and required to perform accurate current measurements. A typical current sensor transfer impedance can be retrieved form the manufacturer of the current sensor, or it can be determined in a calibration laboratory. It is however also possible to determine the transfer impedance of a current sensor yourself, if you have the correct equipment.
 
This Application Note explains how measurements can be done in {{RadiMation}} to determine the transfer impedance of a current sensor. These measurements are done by using the Attenuation/Gain calibrations as they are provided by {{RadiMation}}. After the Attenuation/Gain calibration is performed, some calculations are needed to determine the correct transfer impedance, however these can easily be done in Microsoft [[Excel]]. A verification of the calibration and recalculation of the data can be done to ensure that the expected current is indeed correctly measured by {{RadiMation}}.
 
== Performing the Attenuation/Gain system calibration ==
 
== Performing the Attenuation/Gain EUT calibration ==
 
== Converting the determined to a transfer impedance ==
 
== Specifying the transfer impedance for the current sensor device driver ==
 
== Verification ==
After the transfer impedance of the current sensor is determined and attached, it is also possible to verify if {{RadiMation}} is able to measure the expected current.
 
 
== Relevant links ==
* [https://www.fischercc.com/wp-content/uploads/2016/07/Current_Probe_Calibration_PGD_2014_02_06_2.pdf    Fischer Custom Communications: Current Probe Calibration]
* [https://design-4-emc.com/2013/01/22/question-on-current-probe-calibrations/    Wyatt Technical Services: Question on Current Probe Calibrations]


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[[Category:RadiMation Application Note]]
[[Category:RadiMation Application Note]]
[[Category:RadiMation]]
[[Category:RadiMation]]

Revision as of 10:15, 29 January 2019

How to determine the current sensor transfer impedance[edit]

The transfer impedance of a current sensor is important and required to perform accurate current measurements. A typical current sensor transfer impedance can be retrieved form the manufacturer of the current sensor, or it can be determined in a calibration laboratory. It is however also possible to determine the transfer impedance of a current sensor yourself, if you have the correct equipment.

This Application Note explains how measurements can be done in RadiMation® to determine the transfer impedance of a current sensor. These measurements are done by using the Attenuation/Gain calibrations as they are provided by RadiMation®. After the Attenuation/Gain calibration is performed, some calculations are needed to determine the correct transfer impedance, however these can easily be done in Microsoft Excel. A verification of the calibration and recalculation of the data can be done to ensure that the expected current is indeed correctly measured by RadiMation®.

Performing the Attenuation/Gain system calibration[edit]

Performing the Attenuation/Gain EUT calibration[edit]

Converting the determined to a transfer impedance[edit]

Specifying the transfer impedance for the current sensor device driver[edit]

Verification[edit]

After the transfer impedance of the current sensor is determined and attached, it is also possible to verify if RadiMation® is able to measure the expected current.


Relevant links[edit]