A Comparative Analysis of DC - DC Boost Converter Voltages for Renewable Electrolysis

Sheetal Chauhan, M. A. Ansari, O. Singh
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引用次数: 1

Abstract

The process that is responsible for changing a particular DC voltage to another DC voltage is termed as DC- to-DC voltage conversion. There are three types of DC-to-DC power converters. They are Buck Converter, Boost Converter and Buck-Boost Converter. Buck converter steps down voltage from its input to its output while a buck-boost converter maintains higher or lower output, which depends on the source voltage. A boost converter is a system where voltage at the output terminal is higher than the source voltage. It is generally referred by the name "step-up" converter because of its source voltage stepping up capability. Since, power must always be conserved; current at the output terminal is lower than the current at the input terminal. Power requirement for the boost converter can be fulfilled using some efficient DC source, such as batteries, PV panels and DC generators. Boost converter finds application in consumer electronics, DC motor drives, photovoltaic systems and so on. This paper presents a detailed analysis of DC-to-DC boost converter voltages for renewable electrolysis. The paper presents two circuit topologies of the boost converter viz. one with transformer and the other without transformer. A comparative analysis of these circuit topologies is done and MATLAB simulation results are obtained. It has been proved that the topology using a voltage-matching transformer of high frequency is better. In the analysis, the topology with transformer is proved better for renewable electrolysis due to its regulated output voltage and ripple-free characteristic.
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可再生电解用DC - DC升压变换器电压的比较分析
将一个特定的直流电压转换为另一个直流电压的过程称为DC- DC电压转换。dc - dc电源转换器有三种类型。它们是降压转换器,升压转换器和降压-升压转换器。Buck变换器从输入端降压到输出端,而Buck -boost变换器则根据源电压的不同,保持较高或较低的输出。升压变换器是一种输出端电压高于源电压的系统。由于它具有源电压升压能力,因此通常称为“升压”变换器。因为,权力必须永远被保存;输出端的电流小于输入端的电流。升压变换器的功率需求可以通过一些高效的直流电源来满足,如电池、光伏板和直流发电机。升压变换器在消费电子、直流电机驱动、光伏系统等领域有广泛的应用。本文详细分析了用于可再生电解的dc - dc升压转换器电压。本文介绍了升压变换器的两种电路拓扑结构,即带变压器和不带变压器。对这两种电路拓扑结构进行了对比分析,并给出了MATLAB仿真结果。实验证明,采用高频电压匹配变压器的拓扑结构效果较好。分析表明,带变压器的拓扑结构具有稳压输出和无纹波特性,更适合再生电解。
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