High-Performance Voltage-Boost Switched-Coupled-Inductor DC–DC Converters Deduced From Impedance Source Networks

IF 7.9 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE Open Journal of Industry Applications Pub Date : 2024-11-05 DOI:10.1109/OJIA.2024.3490592
Yuliang Ji;Lina Geng
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Abstract

This article proposes a switched-coupled-inductor impedance source network integrating capacitor-winding-diode technology. Next, voltage-boost switched-coupled-inductor dc–dc converters based on the proposed impedance source network are deduced out. The proposed dc–dc converters can obtain higher voltage gain and own common ground. Also, input currents of the proposed converters are continuous, which is beneficial of input power. Compared to conventional impedance source dc–dc converters, the proposed converters can have the higher boost ability and largely reduce the voltage stresses across switches in the same voltage gain. Theoretical analysis including operation principles, voltage gain derivations, stress analysis, parameter design, efficiency analysis, and feature comparisons of the proposed topologies are given. The specific experimental results are shown to verify the aforementioned analysis.
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从阻抗源网络推导出的高性能升压型开关耦合电感器 DC-DC 转换器
本文提出了一种集成电容-绕组-二极管技术的开关耦合电感阻抗源网络。接着,推导出了基于该阻抗源网络的升压型开关耦合电感直流-直流转换器。所提出的直流-直流转换器可以获得更高的电压增益,并拥有共地。此外,拟议转换器的输入电流是连续的,这有利于输入功率。与传统的阻抗源直流-直流转换器相比,所提出的转换器具有更高的升压能力,并能在相同的电压增益下大大降低开关两端的电压应力。理论分析包括工作原理、电压增益推导、应力分析、参数设计、效率分析以及拟议拓扑结构的特性比较。具体的实验结果也验证了上述分析。
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