Aldehyde replacement advances efficient hydrogen production in electrolyser

Chang-Shuai Shang , Jing Li , Shao-Jun Guo , Er-Kang Wang
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Abstract

The high energy consumption and production of undesired oxygen greatly restrict the wide adoption of water electrolysis for hydrogen production. In a paper recently published in Nature Catalysis, Wang and coworkers rationally introduce aldehydes for oxidation at anode to replace oxygen evolution reaction, which can produce hydrogen and value-added products at low potential, realizing efficient bipolar hydrogen production with high-purity. Moreover, these aldehydes are biomass-derived and contribute to sustainable hydrogen production.

乙醛置换促进了电解槽高效制氢
高能耗和产生不需要的氧气极大地限制了水电解制氢的广泛采用。在最近发表在Nature Catalysis上的一篇论文中,Wang和同事合理地引入醛类在阳极氧化,以取代析氧反应,该反应可以在低电位下产生氢气和增值产品,实现了高效的高纯度双极制氢。此外,这些醛是生物质衍生的,有助于可持续的氢气生产。
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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