催化作用
单层
纳米材料
纳米技术
基质(水族馆)
单体
材料科学
原子层沉积
自组装
原子单位
氢
化学工程
化学
薄膜
物理
有机化学
复合材料
量子力学
工程类
地质学
海洋学
聚合物
作者
Yeo Hoon Yoon,Karthikeyan Jeyakumar,Gang San Lee,Jayaraman Balamurugan,Suchithra Padmajan Sasikala,Chan Woo Lee,Colin Wing‐Lok Cheng,Jun Beom Kim,Haeshin Lee,Sang Ouk Kim
标识
DOI:10.1002/advs.202507807
摘要
Abstract Molecular self‐assembly strategy for Pt‐O electrocatalysts is presented, achieved by facile solution processing of dopamine monomers. This mussel‐inspired strategy ensures a highly defined PtO 4 atomic structure with uniform monolayer deposition across various 2D nanomaterials. By leveraging the intimate interplay between PtO 4 sites and 2D substrates, while maintaining a consistent coordination environment, underlying mechanism for enhanced kinetics in interfacial synergistic hydrogen evolution reaction is systematically elucidated. Notably, the self‐assembled PtO 4 site exhibits up to a 30‐fold enhancement of mass activity compared to commercial Pt/C catalysts, contingent upon the choice of substrate material. Theoretical investigation illustrates facilitated electron transfer, optimized energy barriers, and additional reaction pathways resulting from the synergistic interplay between PtO 4 and Ti 3 C 2 O 2 MXene. This straightforward, energy‐efficient, and highly reliable scheme for atomic‐level catalysts prospects a valuable platform toward sub‐molecular level engineering of tailored electronic structures and properties.
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