Zhao Wenhao, Chen Haijun, Zhang Jinqiang, Low Paul J, Sun Hongqi
School of Molecular Sciences, The University of Western Australia 35 Stirling Highway Perth Western Australia 6009 Australia
Jiangsu Key Laboratory of Process Enhancement and New Energy Equipment Technology, School of Mechanical and Power Engineering, Nanjing Tech University Nanjing 211816 Jiangsu China.
Chem Sci. 2024 Oct 4;15(42):17292-327. doi: 10.1039/d4sc05065g.
The pursuit of sustainable and clean energy sources has driven extensive research into the generation and use of novel energy vectors. The photocatalytic overall water splitting (POWS) reaction has been identified as a promising approach for harnessing solar energy to produce hydrogen to be used as a clean energy carrier. Materials chemistry and associated photocatalyst design are key to the further improvement of the efficiency of the POWS reaction through the optimization of charge carrier separation, migration and interfacial reaction kinetics. This review examines the latest progress in POWS, ranging from key catalyst materials to modification strategies and reaction design. Critical analysis focuses on carrier separation and promotion from the perspective of internal and external energy fields, aiming to trace the driving force behind the POWS process and explore the potential for industrial development of this technology. This review concludes by presenting perspectives on the emerging opportunities for this technology, and the challenges to be overcome by future studies.
对可持续和清洁能源的追求推动了对新型能量载体的产生和利用的广泛研究。光催化全水分解(POWS)反应已被视为一种利用太阳能生产氢气作为清洁能源载体的有前景的方法。材料化学及相关光催化剂设计是通过优化电荷载流子的分离、迁移和界面反应动力学来进一步提高POWS反应效率的关键。本综述考察了POWS的最新进展,范围从关键催化剂材料到改性策略和反应设计。批判性分析从内部和外部能量场的角度聚焦于载流子的分离和促进,旨在追踪POWS过程背后的驱动力,并探索该技术的工业发展潜力。本综述最后阐述了该技术新出现的机遇以及未来研究需克服的挑战。