Teoh Wey Yang, Scott Jason A, Amal Rose
†Clean Energy and Nanotechnology (CLEAN) Laboratory, School of Energy and Environment, City University of Hong Kong, Hong Kong, S.A.R.
‡ARC Centre of Excellence for Functional Nanomaterials, School of Chemical Engineering, The University of New South Wales (UNSW), Sydney, Australia.
J Phys Chem Lett. 2012 Mar 1;3(5):629-39. doi: 10.1021/jz3000646. Epub 2012 Feb 17.
The field of heterogeneous photocatalysis has expanded rapidly in the last four decades, having undergone various evolutionary phases related to energy and the environment. The two most significant applications of photocatalysis are geared toward solar water splitting and the purification of air and water. Notably, the interdisciplinary nature of the field has increased significantly, incorporating semiconductor physics, surface sciences, photo and physical chemistry, materials science, and chemical engineering. Whereas this forms the basis on which the field continues to grow, adequate bridging of multidisciplinary knowledge remains essential. By recalling some of the classical fundamentals of photocatalysis, this Perspective provides contemporary views on heterogeneous photochemical conversion, encompassing charge transport characteristics, radical chemistry and organic degradation mechanisms, photocatalyst design, and photoreactor engineering.
在过去的四十年里,多相光催化领域发展迅速,经历了与能源和环境相关的各个发展阶段。光催化的两个最重要应用是太阳能水分解以及空气和水的净化。值得注意的是,该领域的跨学科性质显著增强,涵盖了半导体物理学、表面科学、光化学和物理化学、材料科学以及化学工程。虽然这构成了该领域持续发展的基础,但多学科知识的充分衔接仍然至关重要。通过回顾光催化的一些经典基础,本综述提供了关于多相光化学转化的当代观点,包括电荷传输特性、自由基化学和有机降解机制、光催化剂设计以及光反应器工程。