Analysis and Design of Multifrequency Compensation Strategy for Wide Misalignment Tolerance in Inductive Power Transfer Systems

In inductive power transfer systems, misalignment can lead to inconsistent output power. In this article, a topology based on a primary-side detuned multifrequency compensation circuit is proposed to provide consistent output over a wide misalignment range. This topology exhibits multiple intersecti...

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Veröffentlicht in:IEEE transactions on power electronics 2023-09, Vol.38 (9), p.11705-11718
Hauptverfasser: Yao, Zirui, Luo, Shiying, Zhang, Zhuhaobo, Li, Guanxi, Wei, Xuan, Shen, Xiangwei, Zhang, Ni, Krein, Philip T., Ma, Hao
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container_end_page 11718
container_issue 9
container_start_page 11705
container_title IEEE transactions on power electronics
container_volume 38
creator Yao, Zirui
Luo, Shiying
Zhang, Zhuhaobo
Li, Guanxi
Wei, Xuan
Shen, Xiangwei
Zhang, Ni
Krein, Philip T.
Ma, Hao
description In inductive power transfer systems, misalignment can lead to inconsistent output power. In this article, a topology based on a primary-side detuned multifrequency compensation circuit is proposed to provide consistent output over a wide misalignment range. This topology exhibits multiple intersecting power versus coupling coefficient curves given multiple switching frequencies. The coupling range, and associated misalignment range, can be extended without increasing power and current variability by changing the switching frequency strategically at curve intersections. Parameter design and selection of the number of switching frequencies are presented. Fundamental relationships between power variation and coupling range are established. With this approach, a choice of two suitable switching frequencies changes output power by only 10% over a coupling coefficient range from 0.14 to 0.35. Three frequencies can support lower power variation or a wider coupling range. Primary current at low coupling is lower with the strategy than for conventional alternatives because reactive power can be limited. A 1.5 kW prototype has been prepared to verify the topology. The prototype confirms a power variation of 10% over a coupling coefficient range from 0.14 to 0.35 with two frequencies. With three frequencies, power variation drops to 6.7% over the same coupling range.
doi_str_mv 10.1109/TPEL.2023.3287352
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In this article, a topology based on a primary-side detuned multifrequency compensation circuit is proposed to provide consistent output over a wide misalignment range. This topology exhibits multiple intersecting power versus coupling coefficient curves given multiple switching frequencies. The coupling range, and associated misalignment range, can be extended without increasing power and current variability by changing the switching frequency strategically at curve intersections. Parameter design and selection of the number of switching frequencies are presented. Fundamental relationships between power variation and coupling range are established. With this approach, a choice of two suitable switching frequencies changes output power by only 10% over a coupling coefficient range from 0.14 to 0.35. Three frequencies can support lower power variation or a wider coupling range. Primary current at low coupling is lower with the strategy than for conventional alternatives because reactive power can be limited. A 1.5 kW prototype has been prepared to verify the topology. The prototype confirms a power variation of 10% over a coupling coefficient range from 0.14 to 0.35 with two frequencies. With three frequencies, power variation drops to 6.7% over the same coupling range.</description><identifier>ISSN: 0885-8993</identifier><identifier>EISSN: 1941-0107</identifier><identifier>DOI: 10.1109/TPEL.2023.3287352</identifier><language>eng</language><publisher>New York: The Institute of Electrical and Electronics Engineers, Inc. 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subjects Circuits
Coefficient of variation
Compensation
Coupling coefficients
Design parameters
Misalignment
Power transfer
Prototypes
Reactive power
Switching
Topology
title Analysis and Design of Multifrequency Compensation Strategy for Wide Misalignment Tolerance in Inductive Power Transfer Systems
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