The use of measurement technology in the high-voltage environment brings with it a number of new regulations and requirements that must be observed. First and foremost is the safety of the operator, which places new demands on the measurement technology.

• What is changing when using measurement technology in the HV environment?
• Can I use conventional measurement technology for measurements in the HV environment?
• Which regulations and standards must be complied with?
• What features must the measurement technology used have?

An essential aspect in long-term utilization of measurement technology is the regular calibration of the measurement amplifiers. In the case of high-voltage safe measurement technology, not only should the modules be part of a preventative maintenance and calibration schedule like other equipment, the high-voltage insulation test, which is urgently required according to EN 61010, must also carried out on a regular basis.

In this webinar, we will show you our solutions for calibration and HV insulation testing and deal with the following topics:

• How do you prevent measurement bottlenecks when calibration of your measurement amplifiers is due?
• How can you save valuable resources such as time, money and maintain confidence?
• What additional benefits do you enjoy by having your measurement technology tested at your site?

Increasing demands of developers on measurement tasks mean that the number of measurement channels is constantly growing and test setups are becoming more and more complex. Measurement chains with significantly more than 50 channels are no longer uncommon - and the error-free input of signal names and scaling factors can quickly become a challenge. For perfect measurement results, however, all designations must be correct. Typing errors and transposed numbers, made for example under time pressure, can render entire measurements unusable.

In this episode of CSM Xplained, we show how you can integrate existing data in just a few steps when configuring measurement chains and thus avoid costly errors.

This includes:

• Using standard names from signal databases
• TEDS as electrical data sheets
• Transferring calibration data from sensor databases
• Possibilities to split tasks and automate processes