Soft Switching Based Design of Wireless In-Wheel Motor Drive System with Series/Capacitor-Parallel Compensation

Wireless in-wheel motor drive systems have been used to reduce the disconnection risk of power cables. A series/capacitor-parallel (S/CP) compensation topology is proposed for the system. Despite the structural similarity with the series/series-parallel (S/SP) compensation, the S/CP compensation adopts a different design concept to enhance the voltage gain flexibility. Soft switching is first considered in the design given its importance for resonant converters. Based on the derived soft switching boundaries, design points can be readily determined. Meanwhile, virtual parameters are introduced to eliminate the terminal effect on soft switching. Furthermore, noting the motor load’s substantial tolerance of bus voltage variations, an optimization design method is proposed. The proposed design method can facilitate soft switching, ensure bus voltage requirements, and maintain high efficiency over a broad range of loads and misalignments. Finally, a 600 W prototype is built to verify the theoretical analysis, and a maximum efficiency of 96.81% is achieved.

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Publication Details

Journal
IEEE Journal of Emerging and Selected Topics in Power Electronics
Published
2025-01-01
DOI
https://doi.org/10.1109/jestpe.2025.3613333
Primary Topic
Wireless Sensor Networks and IoT
Type
article
Field-Weighted Citation Impact
0.00
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article

Soft Switching Based Design of Wireless In-Wheel Motor Drive System with Series/Capacitor-Parallel Compensation

Ching‐Ming Lai, Chi K. Tse, Chaoqiang Jiang, Qianhong Chen et al.
IEEE Journal of Emerging and Selected Topics in Power Electronics
Wireless Sensor Networks and IoT
article

Soft Switching Based Design of Wireless In-Wheel Motor Drive System with Series/Capacitor-Parallel Compensation

Ching‐Ming Lai, Chi K. Tse, Chaoqiang Jiang, Qianhong Chen, Xin Felix Chen
article en

Abstract

Wireless in-wheel motor drive systems have been used to reduce the disconnection risk of power cables. A series/capacitor-parallel (S/CP) compensation topology is proposed for the system. Despite the structural similarity with the series/series-parallel (S/SP) compensation, the S/CP compensation adopts a different design concept to enhance the voltage gain flexibility. Soft switching is first considered in the design given its importance for resonant converters. Based on the derived soft switching boundaries, design points can be readily determined. Meanwhile, virtual parameters are introduced to eliminate the terminal effect on soft switching. Furthermore, noting the motor load’s substantial tolerance of bus voltage variations, an optimization design method is proposed. The proposed design method can facilitate soft switching, ensure bus voltage requirements, and maintain high efficiency over a broad range of loads and misalignments. Finally, a 600 W prototype is built to verify the theoretical analysis, and a maximum efficiency of 96.81% is achieved.

IEEE Journal of Emerging and Selected Topics in Power Electronics
National Chung Hsing University (TW), City University of Hong Kong (HK), Nanjing University of Aeronautics and Astronautics (CN)
Openalex Percentile: Top 68%
Wireless Sensor Networks and IoT
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