Application of a Multiphase Interleaved DC-DC Converter for Power-to-Hydrogen Systems

F. Pellitteri, N. Campagna, R. Inguanta, R. Miceli
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Abstract

Power electronics plays a crucial role in the implementation of a clean hydrogen production system, whose last stage consists of a water electrolyzer requiring a DC power supply to be in operation. The most recent architectural solutions imply the use of an isolated DC-DC converter, collecting energy from medium voltage (MV) and delivering it to the electrolyzer. An equivalent electrical model of the electrolyzer is therefore needed, as well as an accurate design of the power converter stage, aiming at a high-efficiency operation of the electrolyzer’s cells and at a low-ripple supply current, to avoid premature degradation. This work investigates a full-bridge step-down isolated DC-DC converter, focusing on the opportunity of a multiphase interleaved configuration, particularly convenient for the proposed application. The considered maximum power level is 400 kW, representing a small-scale example of an industrial water electrolyzer supplied by a maximum DC voltage of 700 V. Input DC voltage is 7 kV. Power electronics’ simulation have been carried out, as well as model analysis of the proposed converter.
多相交错DC-DC变换器在电力制氢系统中的应用
电力电子在清洁制氢系统的实施中起着至关重要的作用,其最后阶段包括需要直流电源供电的水电解槽。最新的架构解决方案意味着使用隔离的DC-DC转换器,从中压(MV)收集能量并将其输送到电解槽。因此,需要电解槽的等效电气模型,以及功率转换器阶段的精确设计,旨在电解槽电池的高效运行和低纹波供电电流,以避免过早退化。这项工作研究了一种全桥降压隔离DC-DC转换器,重点关注多相交错配置的机会,特别方便所提出的应用。考虑的最大功率水平为400千瓦,代表了一个工业水电解槽的小型例子,最大直流电压为700 V。输入直流电压为7kv。对所提出的变换器进行了电力电子仿真和模型分析。
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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