The paper explores the use of the magnetic control strategy for the output power regulation of an LCC-S compensated inductive wireless power transfer system. The magnetic control is implemented through a controlled variable inductor whose magnetization state is actively regulated by an auxiliary DC-DC converter. The principles for the design and regulation of the system are discussed, and the experimental setup for the validation of the regulation method is implemented. Several measurement results highlight the effectiveness and potential improvements of the magnetic control strategy for inductive wireless power transfer systems.The paper explores the use of the magnetic control strategy for the output power regulation of an LCC-S compensated inductive wireless power transfer system. The magnetic control is implemented through a controlled variable inductor whose magnetization state is actively regulated by an auxiliary DC-DC converter. The Figure describes the electrical circuit of the LCC-S compensated inductive wireless power transfer system, with the variable inductor used to implement the magnetic control highlighted in red. The principles for the design and regulation of the system are discussed, and the experimental setup for the validation of the regulation method is implemented. Several measurement results highlight the effectiveness and potential improvements of the magnetic control strategy for inductive wireless power transfer systems. image
Experimental validation of magnetic control strategy in LCC‐S compensated wireless power transfer systems / Solimene, Luigi; Corti, Fabio; Musumeci, Salvatore; López‐alcolea, Francisco Javier; Reatti, Alberto; Ragusa, Carlo Stefano. - In: IET POWER ELECTRONICS. - ISSN 1755-4535. - 17:8(2024), pp. 919-929. [10.1049/pel2.12718]
Experimental validation of magnetic control strategy in LCC‐S compensated wireless power transfer systems
Solimene, Luigi;Musumeci, Salvatore;Ragusa, Carlo Stefano
2024
Abstract
The paper explores the use of the magnetic control strategy for the output power regulation of an LCC-S compensated inductive wireless power transfer system. The magnetic control is implemented through a controlled variable inductor whose magnetization state is actively regulated by an auxiliary DC-DC converter. The principles for the design and regulation of the system are discussed, and the experimental setup for the validation of the regulation method is implemented. Several measurement results highlight the effectiveness and potential improvements of the magnetic control strategy for inductive wireless power transfer systems.The paper explores the use of the magnetic control strategy for the output power regulation of an LCC-S compensated inductive wireless power transfer system. The magnetic control is implemented through a controlled variable inductor whose magnetization state is actively regulated by an auxiliary DC-DC converter. The Figure describes the electrical circuit of the LCC-S compensated inductive wireless power transfer system, with the variable inductor used to implement the magnetic control highlighted in red. The principles for the design and regulation of the system are discussed, and the experimental setup for the validation of the regulation method is implemented. Several measurement results highlight the effectiveness and potential improvements of the magnetic control strategy for inductive wireless power transfer systems. imageFile | Dimensione | Formato | |
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IET Power Electronics - 2024 - Solimene - Experimental validation of magnetic control strategy in LCC‐S compensated.pdf
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https://hdl.handle.net/11583/2990203