Design and Analysis of Four-Plate Capacitive Couplers for Wireless Charging Systems

Pramod Patidar, D. Ronanki, A. Dekka
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Abstract

Capacitive power transfer (CPT) systems have become a popular alternative to inductive power transfer (IPT) systems owing to their unique features such as better misalignment tolerance, relatively inexpensive, and lightweight. However, the main concern with CPT is the low coupling capacitance (typically pico farads (pF) range) between transmitter and receiver plates due to the natural low permittivity in air. Consequently, the power transfer capability is limited, which makes CPT systems unsuitable for high-power large air gap applications. This paper investigates a new four-plate coupler structure with a dielectric medium on the transmitter and receiver plates. The proposed design of the CPT coupler increases the coupling coefficient and improves the power density of the coupler with a better misalignment tolerance. The effectiveness of the proposed CPT coupler is validated through ANSYS-Maxwell simulations. Furthermore, its performance is compared with other configurations in terms of electric field emissions, misalignment tolerance, and coupling capacitance values at a constant excitation.
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无线充电系统四极板电容耦合器的设计与分析
电容式功率传输(CPT)系统由于其独特的特性,如更好的不对中容错性、相对便宜和重量轻,已成为电感式功率传输(IPT)系统的流行替代方案。然而,由于空气中的自然低介电常数,CPT的主要问题是发射器和接收器板之间的低耦合电容(通常为皮法拉(pF)范围)。因此,功率传输能力有限,这使得CPT系统不适合大功率大气隙应用。本文研究了一种新型的四板耦合器结构,该结构在发射板和接收板上都有介质。提出的CPT耦合器设计增加了耦合器的耦合系数,提高了耦合器的功率密度,并具有较好的准直公差。通过ANSYS-Maxwell仿真验证了CPT耦合器的有效性。此外,在恒定激励下,将其性能与其他结构在电场发射、失调公差和耦合电容值方面进行了比较。
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