Design and Implementation of a Modified Boost Topology with High Voltage Ratio and Efficiency Besides the Lower Semiconductors Stresses

Reza Sharifi Shahrivar, H. Gholizadeh, A. Siadatan, S. Afjei
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引用次数: 3

Abstract

Article history: Received 07 November 2021 Received in revised form 25 April 2022 Accepted 08 May 2022 This paper has designed an upgraded form of the boost topology. The voltage ratio of the traditional step-up topology has been increased in quadratic form. Moreover, a low value of the duty cycle, number of components, and voltage/current stresses besides a high efficiency are bold features. The different parameters have been extracted for the ideal/non-ideal modes of the components and continuous/discontinuous current modes. In addition, the different features, such as the current/voltage stresses, have been compared. The efficiency of the designed topology has been extracted, and its various kind of power losses have been compared. The small-signal analysis has been done, and the bode diagram of the system has been extracted. Besides the increased voltage ratio of the designed topology compared to the traditional step-up converter, the continuity of the input current has remained a brilliant feature. Moreover, the semiconductors' stresses have been low-value compared to the recently proposed topologies. Moreover, higher efficiency besides higher voltage gain has been achieved. Finally, the experimental results have been compatible with the simulation and theoretical outcomes. The higher voltage gain of the proposed converter has been caused by the lower value of the duty cycle in comparison with the conventional boost converter, besides an acceptable efficiency and semiconductor stresses.
具有高电压比和高效率的改进升压拓扑结构的设计与实现
文章历史:2021年11月7日收到修订形式2022年4月25日接受2022年5月8日本文设计了升压拓扑的升级形式。传统升压拓扑的电压比以二次形式增加。此外,除了高效率外,低占空比、元件数量和电压/电流应力值是其大胆的特点。提取了元件的理想/非理想模式和连续/不连续电流模式的不同参数。此外,还比较了不同的特性,如电流/电压应力。提取了所设计拓扑的效率,并对其各种功耗进行了比较。对系统进行了小信号分析,提取了系统的波德图。与传统升压变换器相比,所设计的拓扑结构除了提高了电压比外,输入电流的连续性仍然是一个突出的特点。此外,与最近提出的拓扑结构相比,半导体的应力值很低。此外,除了获得更高的电压增益外,还获得了更高的效率。最后,实验结果与仿真和理论结果相吻合。除了具有可接受的效率和半导体应力外,与传统升压变换器相比,所提出的变换器具有较低的占空比值,从而获得较高的电压增益。
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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