SLYY221 November   2023 ADC12DJ5200RF , ADS124S08 , ADS127L11 , AFE2256 , REF35 , REF70 , TPS62912 , TPS62913 , TPS7A94 , TPSM82912 , TPSM82913 , UCC5880-Q1

 

  1.   1
  2.   Overview
  3.   At a glance
  4.   Why high voltage?
  5.   Optimizing wide-bandgap FET performance with component innovations
  6.   Selecting the right gate drivers
  7.   Selecting the right controllers
  8.   Maximizing power density with topology innovations
  9.   Achieving extreme efficiency targets with system-level innovation
  10.   Addressing EMI challenges
  11.   Conclusion
  12.   Additional resources
There are a lot of challenges to delivering efficient power conversion in high-voltage applications. However, component, topology and system-level innovations can significantly increase the high-voltage power-conversion system’s efficiency and density, while simplifying designs.

Power designers have their hands full. Not only do they need to keep up with constant increases in power levels, they also need to find creative ways to continuously improve the efficiency and power density of power supplies. At high voltages, these challenges become more prominent.

Delivering efficient power conversion in high-voltage systems requires an in-depth knowledge of high-voltage components, electrical and magnetic circuit modeling techniques, an understanding of insulation requirements for functional or safety isolation, expertise in electromagnetic compatibility, power-converter control techniques and more.

Simplifying high-voltage power design is a challenging task, but not an impossible one.

Sheng-yang Yu

System Manager

Power Design Services