电催化剂
催化作用
法拉第效率
电化学
材料科学
离解(化学)
化学工程
纳米技术
可逆氢电极
无机化学
氨生产
产量(工程)
化学
吸附
电极
氨
氢
亚硝酸盐
密度泛函理论
分解水
多相催化
协同催化
膜
作者
Hui Zhang,Haiyan Duan,Donglin Han,Zhenlin Wang,Xingchi Li,Dengchao Peng,Lupeng Han,Tianting Pang,Evangelina Pensa,Wenqiang Qu,Yongjie Shen,Haotian Wang,Wei Ren,Ming Xie,Emiliano Cortés,Dengsong Zhang
标识
DOI:10.1002/advs.202520683
摘要
with 87.9% Faradaic efficiency in a membrane electrode assembly-4× and 18× higher than flow- and H-cell configurations, respectively. Operando spectroscopy confirms the predicted mechanism, demonstrating a theory-to-device workflow that replaces trial-and-error with predictive catalyst design. This approach establishes a generalizable paradigm for developing advanced electrocatalysts for sustainable chemical transformations.
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