Existing Coil Topologies for Inductive Power Transfer in EV Charging: A Review

Rana Asad Ali, Muhammed Hamza Latif, Muhammad Usman
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引用次数: 2

Abstract

With the growing share of electric vehicles (EV) in the market, the carbon footprint contributed by the automotive sector that is accounted for around one-quarter of the total, can be lessened. Nowadays, these cars are mainly being charged by plug-in conductive technology which bridges the gap of transition from internal combustion engine (ICE) vehicles to EV. However, at the same time, it poses the challenges of nonexistence of reliability, robustness and safety for the users which could be solved by adopting wireless power transfer technology (WPTT). Inductive power transfer system (IPTS) implements WPTT infrastructure for EV charging whose efficiency mainly dependent on coil design. Therefore, this review paper aims to summarize nine magnetic pads such as: Circular (CP), Solenoid (SP), Double-D (DDP), Double-D Circular (DDC), Double-D Quadrature (DDQP), Quad-D Quadrature (QDQ), Bipolar (BP), Tripolar (TPP) and Triple Quadrature (TQP). It enlists the overview of their classification, important parameters, flux patterns, guidelines of standardization bodies, design of coils, advantages, magnetic coupling coefficient (MCC), coordination with other pads, evaluation of these pads based on performance parameters, cost, drawbacks, applications, operation under misalignment, leakage flux and their power transfer capability. Moreover, the comparison table of above-mentioned pads not only highlights their key features but also their limitations which can be beneficial for future research work.
电动汽车充电中感应功率传输的现有线圈拓扑:综述
随着电动汽车(EV)在市场上的份额不断增加,占总排放量四分之一左右的汽车行业的碳足迹可能会减少。目前,这些汽车主要采用插电式导电技术充电,填补了内燃机汽车向电动汽车过渡的空白。但与此同时,它对用户提出了不存在可靠性、鲁棒性和安全性的挑战,而采用无线电力传输技术(WPTT)可以解决这些问题。感应功率传输系统(IPTS)实现了电动汽车充电的WPTT基础设施,其效率主要取决于线圈的设计。因此,本文综述了9种磁垫,包括圆形(CP)、螺线管(SP)、双d (DDP)、双d圆形(DDC)、双d正交(DDQP)、四d正交(QDQ)、双极(BP)、三极(TPP)和三重正交(TQP)。它概述了它们的分类、重要参数、磁通模式、标准化机构的指南、线圈的设计、优点、磁耦合系数(MCC)、与其他焊盘的协调、基于性能参数的焊盘评价、成本、缺点、应用、不校准下的运行、漏磁和功率传输能力。此外,通过对比表,不仅突出了上述衬垫的主要特点,也指出了它们的局限性,有助于今后的研究工作。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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