应用于电动汽车无线充电的高频谐振感应功率传输研究与设计

A. Purwadi, Arwindra Rizaiawan, A. P. Pohan, Danang Choirul Abdillah, Made Dimas Ganda Wijaya
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引用次数: 1

摘要

本文介绍了一种利用谐振电路或感应功率传输(IPT)的无线功率传输的设计。IPT分为三部分:AC-AC变换器、磁耦合电路和AC-DC变换器。AC-AC变换器部分将系统频率改为高频。除此之外,这个转换器有一个电流控制器,以确保流向一次侧的电流不会太高。交流-交流变换器的平均效率为85%。在磁耦合方面,研究了错位线圈与功率传递效率、错位线圈与耦合系数、气隙与耦合系数的关系。利用JMAG软件对其进行了三维有限元建模。在50 khz谐振频率下,结果表明:当两线圈之间的偏差达到160 mm以上时,功率传输效率显著降低,偏差与效率之间呈负相关关系,偏差与耦合系数之间呈负相关关系,气隙与耦合系数之间也呈负相关关系。最后是带充电调节器的交直流转换电路。交流-直流转换器由一系列整流器、降压转换器和用于电池充电的控制器组成。利用PSIM和Matlab Simulink软件对电池充电方案进行了仿真,研究了充电参数对电池电压变化和荷电状态(SOC)的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study and Design High-Frequency Resonant Inductive Power Transfer for Application of Wireless Charging Electric Vehicles
This paper explains about the design of wireless power transfer using resonance circuit or called Inductive Power Transfer (IPT). IPT has divided into three parts AC-AC converters, a magnetic coupling circuit, and AC-DC converter. AC-AC converter parts will change the system frequency to high frequency. Besides that, this converter has a current controller to make sure the current that goes to primary side not too high. The average efficiency of AC-AC converter is 85%. Also, at magnetic coupling, a study was conducted to examine the relation between misalignment coils and power transfer efficiency, between misalignment coils and coupling coefficient, as well as the relation between air gap and coupling coefficient. A 3D modeling is done using Finite Element Method (FEM) with JMAG. At the 50-kHz resonant frequency, the results show that the power transfer efficiency decreased significantly when the misalignment between the two coils reached 160 mm or more, between misalignment with efficiency has a negative correlation, the relation between the misalignment with coupling coefficient has negative correlation, and the relation between the air gap with coupling coefficient also has negative correlation. And the last part is the AC-DC converter circuit with charging regulator used. The AC-DC converter consists of a series of rectifiers, buck converters, and controls used in battery charging. The simulations were performed to study the battery charging scheme as well as the value of the parameters designed using PSIM and Matlab Simulink software to the voltage change and the state of charge (SOC) of the battery.
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