光催化
制作
制氢
异质结
材料科学
半导体
吸附
纳米技术
吸收(声学)
分解水
载流子
化学工程
光催化分解水
氢
光电子学
化学
催化作用
复合材料
有机化学
医学
工程类
病理
替代医学
作者
Mengxi Tan,Chengye Yu,Hua Zeng,Chuanbao Liu,Wenjun Dong,Huimin Meng,Yanjing Su,Lijie J. Qiao,Lei Gao,Qipeng Lu,Yang Bai
出处
期刊:Nanoscale
[Royal Society of Chemistry]
日期:2023-01-01
卷期号:15 (5): 2425-2434
被引量:52
摘要
and good photochemical stability, which far exceeds those of most photocatalysts. The hierarchical loose structure of MIL-68(In)-20@ZIS is conducive to the adsorption of reactants and mass transfer. Meanwhile, a large number of tight 2D contact interfaces significantly reduce the obstruction of charge transfer, paving the way for high-perform photocatalytic hydrogen evolution. The experimental results demonstrate that the MIL-68(In)@ZIS heterojunction achieves intensive photoresponse and effective charge separation and transfer benefiting from unique charge transport paths of a type II heterojunction. This study opens an avenue toward MOF-based heterojunctions for solar energy conversion.
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