分解水
光催化
光激发
析氧
背景(考古学)
材料科学
制氢
密度泛函理论
生化工程
半导体
光催化分解水
催化作用
人工光合作用
纳米技术
氢
化学物理
物理
化学
计算化学
电化学
激发
量子力学
光电子学
生物
电极
古生物学
工程类
生物化学
作者
Jamal Abdul Nasir,Akhtar Munir,Naveed Ahmad,Tanveer ul Haq,Zaibunisa Khan,Zia ur Rehman
标识
DOI:10.1002/adma.202105195
摘要
Photocatalytic water splitting is considered one of the most important and appealing approaches for the production of green H2 to address the global energy demand. The utmost possible form of artificial photosynthesis is a two-step photoexcitation known as "Z-scheme", which mimics the natural photosystem. This process solely relies on the effective coupling and suitable band positions of semiconductors (SCs) and redox mediators for the purpose to catalyze the surface chemical reactions and significantly deter the backward reaction. In recent years, the Z-scheme strategies and their key role have been studied progressively through experimental approaches. In addition, theoretical studies based on density functional theory have provided detailed insight into the mechanistic aspects of some breathtakingly complex problems associated with hydrogen evolution reaction and oxygen evolution reaction. In this context, this critical review gives an overview of the fundamentals of Z-scheme photocatalysis, including both theoretical and experimental advancements in the field of photocatalytic water splitting, and suggests future perspectives.
科研通智能强力驱动
Strongly Powered by AbleSci AI