化学
光致发光
面(心理学)
解吸
能量转换效率
图层(电子)
衍射
催化作用
光催化
结晶学
电子转移
重组
纳米技术
谱线
载流子
电子衍射
化学物理
化学工程
表面状态
电子
平面
光化学
曲面(拓扑)
理想(伦理)
光伏系统
表面电荷
原子层沉积
活动层
发光
电荷(物理)
量子效率
光电子学
光谱学
作者
Qiutong Han,Xiaowan Bai,Zaiqin Man,Huichao He,Liang Li,Jianqiang Hu,Ahmed Alsaedi,Tasawar Hayat,Zhen‐Tao Yu,Weihua Zhang,Jinlan Wang,Yong Zhou,Zhigang Zou
摘要
Atomically thin, single-crystalline InVO4 sheets with the uniform thickness of ∼1.5 nm were convincingly synthesized, which was identified with strong, low-angle X-ray diffraction peaks. The InVO4 atomic layer corresponding to 3 unit cells along [110] orientation exhibits highly selective and efficient photocatalytic conversion of CO2 into CO in the presence of water vapor. Surface potential change measurement and liquid photoluminescence decay spectra confirm that the atomically ultrathin structure can shorten the transfer distance of charge carriers from the interior onto the surface and decrease the recombination in body. It thus allows more electrons to survive and accumulate on the surface, which is beneficial for activation and reduction of CO2. In addition, exclusively exposed {110} facet of the InVO4 atomic layer was found to bind the generating CO weakly, facilitating quick desorption from the catalyst surface to form free CO molecules, which provides an ideal platform to catalytically selective CO product.
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