Reports From The Frontier: Overcoming Limitations for Pure-water Anion-exchange-membrane Electrolysis

IF 1.7 Q4 ELECTROCHEMISTRY
Grace A Lindquist, Shannon W. Boettcher
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引用次数: 1

Abstract

Anion-exchange-membrane electrolysis is positioned to play a key role in the predicted exponential growth of green hydrogen technology with essential R&D advances. We reveal key design parameters essential to commercialization. First, stable alkaline oxygen-evolution reaction catalysts with high electronic conductivity and minimal surface reconstruction during operation must be designed. Alkaline catalyst layers must also be applied to the membrane electrode assembly with scalable, industrially relevant techniques. Second, ionomer oxidation mitigation strategies must be developed. This approach could also target other creative catalyst layer design, such as phase-separation control to protect oxidation-prone organic components or catalyst engineering to direct selectivity for hydroxide over polymer oxidation. If competitive efficiency and durability can be achieved in pure water, AEM electrolysis has the potential to become a dominant electrolyzer technology.
来自前沿的报道:克服纯水阴离子交换膜电解的限制
阴离子交换膜电解将在绿色氢技术的预测指数增长中发挥关键作用,并具有必要的研发进展。我们揭示了对商业化至关重要的关键设计参数。首先,必须设计稳定的碱性析氧反应催化剂,具有高电子导电性和最小的表面重构。碱性催化剂层也必须应用于膜电极组件与可扩展的,工业相关的技术。其次,必须制定离子单体氧化减缓策略。这种方法也可以针对其他创造性的催化剂层设计,如相分离控制,以保护容易氧化的有机成分或催化剂工程,以直接选择氢氧化物而不是聚合物氧化。如果能够在纯水中实现具有竞争力的效率和耐久性,AEM电解有可能成为主导的电解槽技术。
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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来源期刊
CiteScore
2.10
自引率
5.60%
发文量
62
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