光催化
结晶度
氮化碳
材料科学
氮化物
量子效率
半导体
光催化分解水
氮气
化学工程
碳纤维
酰亚胺
纳米技术
分解水
催化作用
化学
光电子学
高分子化学
有机化学
复合材料
工程类
复合数
图层(电子)
作者
Long Wang,Yifan Lin,Yuanxing Fang
标识
DOI:10.1002/asia.202500604
摘要
Abstract Crystal defects widely exist in semiconductor photocatalysts, and it hinders the quantum efficiency in photocatalytic reactions. The precise manipulation and elimination of these detrimental defects are particularly crucial for improving the photocatalytic overall water splitting (OWS) reaction, though this remains a considerable challenge. In a recent study, Wang and colleagues introduced an innovative “in‐situ salt flux” copolymerization technique to synthesize poly(triazine imide) (PTI) with high crystallinity and minimal defects. This approach resulted in a record apparent quantum efficiency (AQE) of 37.8% at 380 nm. This strategy effectively balances the impact of two types of vacancies (carbon and nitrogen) on OWS performance and establishes clear structure‐property‐activity relationships for the photocatalytic OWS process.
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