Modelling and analysis of a novel hydrogen production approach by full spectrum solar energy

制氢 光伏系统 电解水 高压电解 工艺工程 太阳能 分解水 碱性水电解 氢燃料 电解 材料科学 电解质 化学 工程类 电极 电气工程 催化作用 生物化学 光催化 物理化学 有机化学
作者
Guiqiang Li,Jinpeng Li,Zhong Dai,M. Waqar Akram
出处
期刊:Energy Conversion and Management [Elsevier BV]
卷期号:263: 115694-115694 被引量:42
标识
DOI:10.1016/j.enconman.2022.115694
摘要

For the development of hydrogen energy, it is very important to find a green and efficient hydrogen production approach. By comparing the existing hydrogen production methods, it can be found that using clean and inexhaustible solar energy to produce hydrogen is very promising. Therefore, for efficient hydrogen production from solar energy, a novel hydrogen production approach using full spectrum solar energy by combining photothermal synergistic reaction with photovoltaic power generation electrolysis water is proposed in the paper. And the relevant hybrid hydrogen production model is also established for calculation and discussion. The simulation results show that the efficiency of the proposed hydrogen production approach can reach 21.05% when the elementary reaction time is 1 ns. However, under the same solar radiation conditions and parameters, if the photothermal synergistic reaction and photovoltaic power generation electrolytic water are simulated separately, the hydrogen production efficiency using only the photothermal synergistic reaction is 7.9% and the hydrogen production efficiency using only photovoltaic power generation electrolytic water is 19.19%. Compared with these two methods, the hydrogen production efficiency of this hybrid hydrogen production approach has been greatly improved. And the hydrogen production efficiency curves of this approach under different conditions (including different separation wavelengths, different photovoltaic panel materials, and different electrolysis temperatures) have been also studied in the paper. Therefore, this study can provide a new train of thought for solar hydrogen production approaches, which may provide guidance for realizing green and efficient hydrogen energy production.
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