Recent progress on molecular catalysts integrated photoelectrochemical systems for water oxidation

Xiaokang Wan , Guanghui Zhu , Zhifu Zhou , Xiangjiu Guan
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引用次数: 0

Abstract

The major limitations of photoelectrochemical (PEC) water splitting lies in the currently unsatisfying efficiency and stability of the semiconductor materials-based water splitting systems. By addressing these limitations, the immobilization of the molecular catalysts on semiconductor photoanodes to establish a hybrid inorganic-organic PEC system has attracted an increasing research attention. It is crucial to choose a suitable molecular catalyst and effectively couple it into a hybrid photoelectrode system. In this review, focusing on the water oxidation process, molecular catalysts integrated photoelectrochemical water oxidation systems are highlighted from the perspective of the roles of molecular catalysts and the integration strategies in the hybrid system. The most recent advances are summarized with various case studies presented, based on which perspectives are proposed to provide guidance toward the rational design of an integrated system for future development.

用于水氧化的分子催化剂集成光电化学系统的最新进展
光电化学(PEC)分水技术的主要局限性在于目前基于半导体材料的分水系统在效率和稳定性方面无法令人满意。针对这些局限性,在半导体光阳极上固定分子催化剂以建立无机-有机混合 PEC 系统的研究日益受到关注。选择合适的分子催化剂并将其有效地耦合到混合光电极系统中至关重要。本综述以水氧化过程为重点,从分子催化剂的作用和在混合系统中的集成策略的角度,着重介绍了分子催化剂集成光电化学水氧化系统。在总结最新进展和介绍各种案例研究的基础上,提出了一些观点,为今后开发集成系统的合理设计提供指导。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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