析氧
多学科方法
自旋(空气动力学)
氧气
电解水
电解
物理
政治学
量子力学
热力学
电极
电化学
电解质
法学
作者
Emma van der Minne,Priscila Vensaus,Vadim Ratovskii,Seenivasan Hariharan,Jan Behrends,Cesare Franchini,Jonas Fransson,S. S. Dhesi,Felix Gunkel,Florian Gossing,Georgios Katsoukis,Ulrike I. Kramm,Magalı́ Lingenfelder,Qianqian Lan,Yury V. Kolen’ko,Yang Li,Ramsundar Rani Mohan,Jeffrey McCord,Lingmei Ni,Eva Pavarini
标识
DOI:10.26434/chemrxiv-2025-00jf2
摘要
A central challenge in water electrolysis lies with the oxygen evolution reaction (OER) where the formation of molecular oxygen (O₂) is hindered by the constraint of angular momentum conservation. While the reactants OH⁻ or H₂O are diamagnetic, the O₂ product has a paramagnetic triplet ground state, requiring a change in spin configuration when being formed. This constraint has prompted interest in spin‐selective catalysts as a means to facilitate OER. In this context, the roles of magnetism and chirality‐induced spin selectivity (CISS) in promoting the OER reaction have recently been investigated through both theoretical and experimental studies. However, pinpointing the key principles and their relative contribution in mediating spin‐enhancement remains a significant challenge. This roadmap offers a forward‐looking perspective on current experimental trends and theoretical developments in spin‐enhanced OER electrocatalysis and outlines strategic directions for integrating incisive experiments and operando approaches with computational modeling to disentangle key mechanisms. By providing a conceptual framework and identifying critical knowledge gaps, this perspective aims to guide researchers toward dedicated experimental and computational studies that will deepen our understanding of spin‐induced OER enhancement and accelerate the development of next‐generation catalysts.
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