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A Power-Efficient Resonant Current Mode Receiver With Wide Input Range Over Breakdown Voltages Using Automated Maximum Efficiency Control SCIE SCOPUS

Title
A Power-Efficient Resonant Current Mode Receiver With Wide Input Range Over Breakdown Voltages Using Automated Maximum Efficiency Control
Authors
Lee Hyun-SuAhn JisanEom KyeonghoJung WoojoongLee Seung-JuJung Yeon-WooShin Se-UnLee Hyung-Min
Date Issued
2022-07
Publisher
Institute of Electrical and Electronics Engineers
Abstract
This article proposes a series-LC resonant current mode receiver (RCM R-X) for wirelessly powered battery chargers. With a series-LC scheme, the RCM R(X )can operate at higher resonant voltages than transistor breakdown voltages, enabling robust near-field wireless power transfer. In the series-LC RCM R-X, a dual automated maximum efficiency control (AMEC) and a passive zero-current detector (ZCD) adaptively adjust operation states, ensuring nonresidual energy in the R-X LC tank at the end of the charging mode. Moreover, the passive ZCD operation algorithm increases the power delivered to the load or battery by minimizing the idle period between charging and resonant modes. The 180nm standard CMOS chip, which used only 1.8-V transistors, can operate with 6.84x higher resonant voltage up to 12.32 V than the transistor breakdown voltage, 1.8 V, while receiving an input power up to 169 mW, enabling a wide input range over variable coil distances. The proposed system achieves the measured power conversion efficiency up to 84.9% at the input power of 16.8 mW.
URI
https://oasis.postech.ac.kr/handle/2014.oak/120282
DOI
10.1109/TPEL.2022.3151427
ISSN
0885-8993
Article Type
Article
Citation
IEEE Transactions on Power Electronics, vol. 37, no. 7, page. 8738 - 8750, 2022-07
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신세운SHIN, SE UN
Dept of Electrical Enginrg
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