催化作用
热化学
铜
Crystal(编程语言)
纳米技术
化学工程
材料科学
化学
晶体工程
光化学
组合化学
无机化学
晶体结构
有机化学
超分子化学
工程类
计算机科学
程序设计语言
作者
Feifan Wang,Jie Tian,Mengzhu Li,Weizhen Li,Lifang Chen,Xiaozhi Liu,Jian Li,Aidaer Muhetaer,Qi Li,Yuan Wang,Lin Gu,Ding Ma,Dongsheng Xu
标识
DOI:10.1002/ange.201916049
摘要
Abstract Fully utilizing solar energy for catalysis requires the integration of conversion mechanisms and therefore delicate design of catalyst structures and active species. Herein, a MOF crystal engineering method was developed to controllably synthesize a copper–ceria catalyst with well‐dispersed photoactive Cu‐[O]‐Ce species. Using the preferential oxidation of CO as a model reaction, the catalyst showed remarkably efficient and stable photoactivated catalysis, which found practical application in feed gas treatment for fuel cell gas supply. The coexistence of photochemistry and thermochemistry effects contributes to the high efficiency. Our results demonstrate a catalyst design approach with atomic or molecular precision and a combinatorial photoactivation strategy for solar energy conversion.
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