MOSFET Based Active Rectifier Design in Wireless Capacitive Power Transfer for Electric Vehicles

While the rise of electric vehicles reflects a push for clean energy as envisioned by international agreements like the Paris Agreement, wireless charging's convenience can overcome limitations and hasten their adoption, making it a strategic step alongside regulations such Permenhub No. 15/2022 and SDG 9 “Industry, Innovation, and Infrastructure” for cleaner air and sustainable transportation. The aim is to convert the high frequency AC voltage from the coupling capacitor into a stable DC voltage. Further increase the system sensitivity to the load variations, by designing a MOSFET based active rectifier. By changing load parameters, the accuracy of PFC adaptation to the battery State of Charge (SOC) obtained is at 98% with 2% tolerance for errors. It is concluded that the research is said to be successful because it has met the parameters of general research hypothesis where the system is able to convert high frequency AC voltage into a stable DC voltage.

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Publication Details

Published
2024-11-19
DOI
https://doi.org/10.1109/icsmech62936.2024.10812327
Primary Topic
Wireless Power Transfer Systems
Type
article
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article

MOSFET Based Active Rectifier Design in Wireless Capacitive Power Transfer for Electric Vehicles

Zener Sukra Lie, Amin, Aam Muharam, Abdul Hapid et al.
Wireless Power Transfer Systems
article

MOSFET Based Active Rectifier Design in Wireless Capacitive Power Transfer for Electric Vehicles

Zener Sukra Lie, Amin, Aam Muharam, Abdul Hapid, Muhamad Arjuna Putra Perdana, Klemens Raphael Dragon, Juan Luciano Ika
article en

Abstract

While the rise of electric vehicles reflects a push for clean energy as envisioned by international agreements like the Paris Agreement, wireless charging's convenience can overcome limitations and hasten their adoption, making it a strategic step alongside regulations such Permenhub No. 15/2022 and SDG 9 “Industry, Innovation, and Infrastructure” for cleaner air and sustainable transportation. The aim is to convert the high frequency AC voltage from the coupling capacitor into a stable DC voltage. Further increase the system sensitivity to the load variations, by designing a MOSFET based active rectifier. By changing load parameters, the accuracy of PFC adaptation to the battery State of Charge (SOC) obtained is at 98% with 2% tolerance for errors. It is concluded that the research is said to be successful because it has met the parameters of general research hypothesis where the system is able to convert high frequency AC voltage into a stable DC voltage.

Binus University (ID)
Affordable and clean energy
Openalex Percentile: Top 77%
Wireless Power Transfer Systems
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MOSFET Based Active Rectifier Design in Wireless Capacitive Power Transfer for Electric Vehicles — Zener Sukra Lie, Amin, et al. · (2024) | TGRS Research Map | TGRS