High Isolation Auxiliary Power Source for High Voltage Converters Employing Wireless Inductive Power Transfer

A study of a wireless power source operating at high switching frequency to feed gate drivers of high voltage converter switches is presented. Wireless Inductive Power Transfer is chosen for its high isolation between primary and secondary windings, ensuring isolation from control to power circuits. Series-series reactive power compensation is applied due to the low coupling factor, which causes elevated circulation of reactive power and thus losses can be increased. The resonant circuit is powered by a controlled current source instead of a voltage source, ensuring appropriate voltage regulation without a voltage loop control and the need of control signal transmission between primary and secondary windings. A Proportional Resonant control scheme is implemented to apply a sinusoidal input current source, increasing the power factor and reducing reactive power. This paper presents the operation, modeling and control of proposed topology. A prototype with input voltage of 50 V, output voltage of 24 V, rated output power of 100 W and 125 kV isolation between primary and secondary stages was built and its experimental results are included in this paper.

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Journal
IEEE Access
Published
2025-01-01
DOI
https://doi.org/10.1109/access.2025.3559762
Primary Topic
Wireless Power Transfer Systems
Type
article
Field-Weighted Citation Impact
0.00

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article

High Isolation Auxiliary Power Source for High Voltage Converters Employing Wireless Inductive Power Transfer

André Luís Kirsten, Gabrieli Bernardi, Leonardo Freire Pacheco
IEEE Access
Wireless Power Transfer Systems
article

High Isolation Auxiliary Power Source for High Voltage Converters Employing Wireless Inductive Power Transfer

André Luís Kirsten, Gabrieli Bernardi, Leonardo Freire Pacheco
article en

Abstract

A study of a wireless power source operating at high switching frequency to feed gate drivers of high voltage converter switches is presented. Wireless Inductive Power Transfer is chosen for its high isolation between primary and secondary windings, ensuring isolation from control to power circuits. Series-series reactive power compensation is applied due to the low coupling factor, which causes elevated circulation of reactive power and thus losses can be increased. The resonant circuit is powered by a controlled current source instead of a voltage source, ensuring appropriate voltage regulation without a voltage loop control and the need of control signal transmission between primary and secondary windings. A Proportional Resonant control scheme is implemented to apply a sinusoidal input current source, increasing the power factor and reducing reactive power. This paper presents the operation, modeling and control of proposed topology. A prototype with input voltage of 50 V, output voltage of 24 V, rated output power of 100 W and 125 kV isolation between primary and secondary stages was built and its experimental results are included in this paper.

IEEE AccessVol. 13
Universidade Federal de Santa Catarina (BR)
Coordenação de Aperfeiçoamento de Pessoal de Nível Superior
Affordable and clean energy
Openalex Percentile: Top 94%
Wireless Power Transfer Systems
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High Isolation Auxiliary Power Source for High Voltage Converters Employing Wireless Inductive Power Transfer — André Luís Kirsten, Gabrieli Bernardi, et al. · IEEE Access (2025) | TGRS Research Map | TGRS