肼氧化辅助制氢技术的进展

Shaobo Li , Yuying Hou , Liangliang Jiang , Guang Feng , Yiyao Ge , Zhiqi Huang
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引用次数: 0

摘要

通过电化学分水制氢需要较高的工作电压(1.23 V),因此电费较高,阻碍了其大规模应用。开发更高效、更省电的制氢系统意义重大。肼氧化反应(HzOR)辅助制氢技术是用 HzOR 取代纯水电解系统中的阳极氧进化反应而构建的,可以大大降低工作电压和耗电量,因此具有广阔的应用前景。近年来,大量研究集中于设计各种双功能电催化剂,以同时催化 HzOR 辅助制氢系统中的阴极和阳极反应。然而,对这一领域进行总结和评论的全面综述并不多见。本综述对 2017 年至今 HzOR 辅助制氢技术的发展进行了系统而深刻的概述,主要侧重于催化剂设计策略、催化机理以及经济和应用分析。此外,本综述还讨论了该领域的几个挑战,并概述了未来的研究方向,以吸引更多研究人员的关注,加速 HzOR 辅助制氢技术的研究和潜在应用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Progress in hydrazine oxidation-assisted hydrogen production
Hydrogen production via electrochemical water splitting demands high working voltages (>1.23 ​V) and hence incurs high electricity costs, encumbering its large-scale applications. The development of more high-efficiency and electricity-saving systems for hydrogen production is of great significance. Hydrazine oxidation reaction (HzOR)-assisted hydrogen production technology, which is constructed by replacing the anodic oxygen evolution reaction in pure water electrolysis systems with the HzOR, can greatly reduce the working voltage and electricity consumption, and hence shows great application prospects. In recent years, numerous studies have focused on designing various bifunctional electrocatalysts to simultaneously catalyze the cathodic and anodic reactions in HzOR-assisted hydrogen production systems. However, comprehensive reviews summarizing and commenting on this field are scarce. This review provides a systematic and insightful overview of the developments in HzOR-assisted hydrogen production technology from 2017 to the present, primarily focusing on catalyst design strategies, catalytic mechanisms, and economic and application analysis. Additionally, this review discusses several challenges and outlines future research directions in this field to attract more researchers' attention and accelerate the research and potential applications of HzOR-assisted hydrogen production technology.
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CiteScore
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