Theoretical Models For Photocatalysis Process

T. Marsagishvili, M. Machavariani, G. Tatishvili, E. Tskhakaia, R. Agladze
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引用次数: 2

Abstract

Photocatalysis represents a unique class of chemical transformations. It utilizes the energy delivered by light and drives reactions that are difficult, sometimes even impossible, to carry out in dark. When used for thermodynamically uphill reactions such as photosynthesis, photocatalysis promises a sustainable solution to large scale solar energy storage. Despite the longstanding interest in this process and research efforts, existing photocatalysis demonstrations are limited to academic laboratory settings. Chief among the reasons for the slow progress is the lack of suitable photocatalysts materials for large scale applications. For the purpose of effective light absorption, charge separation, and charge transfer, a large number of photocatalytic materials, including conventional semiconductors and emerging photoelectronic materials such as nanoscale plasmonic metal particles, quantum dots, and 2D materials, have been studied.1
光催化过程的理论模型
光催化是一类独特的化学转化。它利用光传递的能量,驱动在黑暗中很难,有时甚至不可能进行的反应。当用于诸如光合作用之类的热力学上坡反应时,光催化有望成为大规模太阳能储能的可持续解决方案。尽管人们对这一过程和研究工作长期感兴趣,但现有的光催化演示仅限于学术实验室环境。进展缓慢的主要原因是缺乏适合大规模应用的光催化剂材料。为了实现有效的光吸收、电荷分离和电荷转移,人们研究了大量的光催化材料,包括传统的半导体和新兴的光电子材料,如纳米级等离子体金属粒子、量子点和二维材料
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