具有广义级的高电压增益DC-DC非隔离转换器

Hritik N Chavan, R. Wandhare
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引用次数: 1

摘要

本文提出了一种非隔离的dc-dc变换器,以提供高电压增益和低电感要求。该电路可以推广到多级,以实现从低直流电压源获得所需的直流输出电压。在所提出的拓扑结构中,电容器和电感分别在导通和关断期间并联充电/磁化和串联放电/退磁,以获得较高的升压增益。所提出的电源电路适用于基于可再生能源和储能的许多应用,其中所需的直流链路电压要求可高达560V(三相逆变器输入),输入电压可低至48V(一串四节电池或燃料电池)。本文对功率变换器的稳态工作进行了详细的分析,得到了变换器的电压增益。在MATLAB Simulink中对电路设计进行了仿真,验证了该变换器的分析结果。此外,还提供了转换器的广义形式的设计准则,以实现所需的稳态输入输出增益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High Voltage Gain DC-DC Non-Isolated Converter with Generalized Stages
In this paper, a non-isolated dc-dc converter is proposed to provide a high voltage gain with a low inductance requirement. The circuit can be generalized for multiple stages to realize the desired DC output voltage from a low DC voltage source. In the proposed topology, the capacitors and inductors are charged/magnetized in parallel and discharged/demagnetized in series during switched on and off period respectively to obtain a high step-up voltage gain. The proposed power circuit is suitable for many applications based on renewable energy and energy storage where the desired DC-link voltage requirement can be as high as 560V (three-phase inverter input), and input voltage can be as low as 48V (a string of four batteries or fuel cell). A detailed analysis of the steady-state operation of the power converter is provided in this paper to obtain the voltage gain of the converter. The circuit design is simulated in MATLAB Simulink to verify the results of the analysis of this converter. Further, the design guidelines are provided for the generalized form of the converter to achieve desired steady-state input-output gain.
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