Catalyst deactivation during water electrolysis: Understanding and mitigation

APL Energy Pub Date : 2024-04-24 DOI:10.1063/5.0191316
Lijie Du, Weiran Zheng
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Abstract

Electrocatalyst deactivation poses a significant obstacle to transitioning water electrolysis technology from laboratory-scale to industrial applications. To inspire more effort on this topic, this contribution explores the structural factors contributing to catalyst deactivation, elucidating the underlying mechanisms with detailed case studies of hydrogen and oxygen evolution reactions. In particular, the in situ assessment and characterization techniques are highlighted, which can offer a collective understanding of catalyst deactivation. Building on these insights, recent advances in mitigating catalyst deactivation are introduced, from innovative catalyst designs to advanced electrode engineering. The review concludes by emphasizing the necessity for universal test protocols for deactivation and integrating evidence from diverse in situ measurements, aiming to provide introductive guidance examining the complexities of electrocatalyst deactivation.
水电解过程中的催化剂失活:理解和缓解
电催化剂失活是水电解技术从实验室规模过渡到工业应用的重大障碍。为了激励人们在这一课题上做出更多努力,本论文探讨了导致催化剂失活的结构因素,并通过对氢和氧进化反应的详细案例研究阐明了其潜在机制。其中特别强调了原位评估和表征技术,这些技术可以为催化剂失活提供集体认识。在这些见解的基础上,介绍了缓解催化剂失活的最新进展,包括创新催化剂设计和先进的电极工程。综述最后强调了制定通用失活测试协议的必要性,并整合了来自不同现场测量的证据,旨在为研究电催化剂失活的复杂性提供介绍性指导。
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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