Theoretical study on direct coupling of a PV array to a PEM electrolyser

Ming Zhou, Yefeng Liu
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引用次数: 11

Abstract

Hydrogen is the most potential clean energy in the twenty-first century and can be obtained by the electrolysis of water. As a secondary energy, its production would be restricted by large amount of energy consumption and low efficiency. It is advantageous if an electrolyser can be simply and efficiently coupled to a renewable source of electrical energy. In this paper, it investigated the optimal way to maximize the transference of energy from a photovoltaic (PV) array directly coupled to a polymer electrolyte membrane (PEM) electrolyser in a photovoltaic-electrolyte hydrogen generation system (PV-hydrogen system). The pivotal strategy is to find the series-parallel combination of the PV cells and electrolyser stacks, which produces the highest energy transfer efficiency. The optimal configuration is a PV array consisted of three parallel-connected PV cells directly coupled to a PEM electrolyser consisted of twelve series-connected electrolyser stacks with a day energy transfer efficiency of 99.52%. Comparisons between direct coupling systems and conventional ones have been presented. The result shows that direct coupling technology is feasible to improve the energy transfer efficiency in a PV-hydrogen system.
光伏阵列与PEM电解槽直接耦合的理论研究
氢是21世纪最有潜力的清洁能源,可以通过电解水获得。作为一种二次能源,其生产将受到能耗大、效率低的制约。这是有利的,如果电解槽可以简单而有效地耦合到一个可再生的电力能源。本文研究了在光伏-电解质制氢系统(PV-hydrogen system)中,光伏(PV)阵列直接耦合到聚合物电解质膜(PEM)电解槽的能量转移最大化的最佳方法。关键的策略是找到光伏电池和电解槽的串并联组合,以产生最高的能量传递效率。最佳配置是由3个并联PV电池组成的PV阵列,直接耦合到由12个串联电解槽组成的PEM电解槽,日能量传递效率为99.52%。对直接耦合系统与常规耦合系统进行了比较。结果表明,采用直接耦合技术提高pv -氢气系统的能量传递效率是可行的。
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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