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Post Closed as "Needs details or clarity" by Elliot Alderson, Null, W5VO, Finbarr, StainlessSteelRat
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JRE
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I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This

This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of thea maximum peak output voltage of 10 V it means that the outputs signal level is very low.
I

I drafted some desired spec.specifications, However, none it is a must.

SpecSpecifications:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and an H bridge-bridge. I have not done much HV design however, though I have studied power electronics so I have some basics. As usual, details matter therefore before diving into the H bridge Idea-bridge idea. I prefer to ask as very often a design workingthat works on paper is a nightmare to implement.

I did not post any specific questions as I am more looking for suggestions of things to consider before I begin the design process. Perhaps there are already existing modules that I could use.

I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10 V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must.

Spec:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

I did not post any specific questions as I am more looking for suggestions of things to consider before I begin the design process. Perhaps there are already existing modules that I could use.

I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input.

This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of a maximum peak output voltage of 10 V it means that the outputs signal level is very low.

I drafted some desired specifications, However, none it is a must.

Specifications:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and an H-bridge. I have not done much HV design, though I have studied power electronics so I have some basics. As usual, details matter therefore before diving into the H-bridge idea. I prefer to ask as very often a design that works on paper is a nightmare to implement.

I did not post any specific questions as I am more looking for suggestions of things to consider before I begin the design process. Perhaps there are already existing modules that I could use.

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Wintermute
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I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10 V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must.

Spec:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

I did not post any specific questions as I am more looking for suggestions of things to consider before I begin the design process. Perhaps there are already existing modules that I could use.

I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10 V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must.

Spec:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10 V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must.

Spec:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

I did not post any specific questions as I am more looking for suggestions of things to consider before I begin the design process. Perhaps there are already existing modules that I could use.

'K' for kelvin. 'k' for kilo. Capitals matter. Fixed markdown.
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Transistor
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1KV 1 kV square wave generator

I am looking into building a calibration kit for HV differential probes. The

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10V10 V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must. Spec

Spec: V(peak) = 1KV f = 1KHz V(ripple) = 1V T(rise) = 1us So

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a +/- 1000V±1000 V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

1KV square wave generator

I am looking into building a calibration kit for HV differential probes. The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must. Spec: V(peak) = 1KV f = 1KHz V(ripple) = 1V T(rise) = 1us So far, I have considered using a +/- 1000V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

1 kV square wave generator

I am looking into building a calibration kit for HV differential probes.

The approach I take is to inject the square wave at the input of the differential probe and trim the trimmer caps to compensate the probe till the signal at its output represents the attenuated signal at its input. This proves challenging considering some probes have an attenuation factor of 1000 or 500. Considering that most signal generators are capable of the maximum peak output voltage of 10 V it means that the outputs signal level is very low.
I drafted some desired spec. However, none it is a must.

Spec:

  • V(peak) = 1 kV
  • f = 1 kHz
  • V(ripple) = 1 V
  • T(rise) = 1 μs

So far, I have considered using a ±1000 V DC source and H bridge. I have not done much HV design however I have studied power electronics so I have some basics. As usual, details matter therefore before diving into H bridge Idea I prefer to ask as very often design working on paper is a nightmare to implement.

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Wintermute
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