Design of Optimized Coupling Factor for Minimum Inductor Current Ripple in DC-DC Converter using Multi-winding Coupled Inductor

Taewon Kang, Jacho Lee, Y. Suh
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引用次数: 3

Abstract

The magnetic coupling of filter inductors is widely utilized in various power electronics application fields, including dc-dc converters in EV charger systems, in order to enhance the filtering performance while maintaining the minimal filter size. The optimal distribution of self and mutual inductance of the coupled inductor is regarded as one of the important design tasks with respect to the coupled inductor. This paper proposes a novel method to design the optimal coupling factor for a generalized n-winding coupled inductor, which generates the least size of inductor current ripple in phase-staggered multi-paralleled dc-dc converters. The explicit mathematical form of the optimal coupling factor for a generalized n-winding coupled inductor in n- phase staggered multi-paralleled dc-dc converters is presented. The general equations for the n-winding coupled inductor are verified through the example case of the 3-winding coupled inductor. The experimental results successfully confirmed the newly proposed method of obtaining the optimal coupling factor.
采用多绕组耦合电感的DC-DC变换器中电感电流纹波最小的优化耦合系数设计
滤波电感的磁耦合被广泛应用于各种电力电子应用领域,包括电动汽车充电系统中的dc-dc变换器,以提高滤波性能,同时保持最小的滤波器尺寸。耦合电感的自互感优化分布是耦合电感设计的重要任务之一。本文提出了一种设计广义n绕组耦合电感的最优耦合系数的新方法,使其在交错多并联dc-dc变换器中产生最小的电感电流纹波。给出了n相交错并联dc-dc变换器中广义n绕组耦合电感最优耦合系数的显式数学形式。通过3绕组耦合电感的算例,验证了n绕组耦合电感的一般方程。实验结果成功地验证了新提出的获得最优耦合因子的方法。
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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