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March 4, 2026AIP Advances0 citationsOpen Access

A wireless power transfer system employing an LCC/LCC compensation topology with misalignment-resistant dual-port output characteristics

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HLHui LiYZYan ZhangPSPan Shenghua

Key Points

  • This research aims to develop a wireless power transfer system that is resistant to coil misalignment while ensuring flexible coil design.
  • Propose a wireless power transfer system utilizing LCC–LCC compensation topology.
  • Establish an equivalent circuit model to analyze system parameters.
  • Derive design methods for zero-phase-angle input and dual-port output.
  • Introduce a control factor for adaptive modulation of coil and compensation parameters.
  • Conduct experiments to test performance across varying loads and misalignment conditions.
  • Maintained zero-phase-angle input across load ranges of 5–20 Ω.
  • Achieved effective suppression of output voltage and current fluctuations to within 10%.
  • Successfully handled X/Y axis offsets up to 50% of the coil diameter.

Abstract

To achieve a misalignment-resistant dual-port output wireless power transfer (WPT) system with high coil design flexibility, this paper proposes a WPT system based on the LCC–LCC compensation topology and its parameter design methodology. By establishing an equivalent circuit model of the system, two approaches for achieving zero-phase-angle (ZPA) input and a design method for dual-port output parameters are derived. Building upon this, a control factor β incorporating coil parameters is introduced to construct an adaptive modulation strategy for coil and compensation parameters. This strategy effectively suppresses mutual inductance fluctuations caused by coil misalignment by establishing a mapping relationship between the mutual inductance offset ratio and compensation parameters. Experimental results demonstrate that the system maintains ZPA input across load ranges of 5–20 Ω and X/Y axis offsets reaching 50% of the coil diameter, suppressing output voltage and current fluctuations to within 10%.

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Cite This Study

Li et al. (2026) studied this question.

synapsesocial.com/papers/69a7ccc3d48f933b5eed87e9https://doi.org/10.1063/5.0313407
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