Recent advances in cocatalyst engineering for solar-driven overall water splitting

Christian Mark Pelicano, Haijian Tong
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Abstract

Solar-driven overall water splitting using particulate photocatalysts represents a viable and attractive paradigm to produce H2. To achieve sustainable artificial photosynthesis, considerable effort has been devoted in enhancing the overall efficiency and stability of photocatalysts. More specifically, modifying the photocatalyst surface with suitable cocatalysts can significantly enhance its water-splitting performance. In this minireview, we describe recent advances with respect to the hybridization strategies in constructing high-performance cocatalyst/photocatalyst systems. We first discuss the fundamental concepts and principles governing the photocatalytic water splitting and the important role of cocatalysts. Subsequently, we examine the strengths and drawbacks of conventional and emerging cocatalyst loading strategies. Special consideration is given to the structure–activity relationship of cocatalysts to achieve efficient photocatalytic H2 production from pure H2O. Finally, the remaining key challenges and possible future directions in the discovery and further exploration of cocatalyst materials are also discussed. We anticipate this review will provide insights and inspire more research interest in designing high-performance cocatalysts for photocatalytic overall water splitting.

Abstract Image

太阳能驱动整体水分离助催化剂工程的最新进展
利用微粒光催化剂进行太阳能驱动的整体水分离是一种可行且有吸引力的生产 H2 的范例。为了实现可持续的人工光合作用,人们在提高光催化剂的整体效率和稳定性方面投入了大量精力。更具体地说,用合适的共催化剂修饰光催化剂表面可以显著提高其水分离性能。在本小视图中,我们将介绍在构建高性能催化剂/光催化剂系统的杂化策略方面的最新进展。我们首先讨论了光催化水分离的基本概念和原理以及催化剂的重要作用。随后,我们研究了传统和新兴的茧催化剂负载策略的优缺点。我们还特别考虑到了催化剂的结构-活性关系,以实现从纯 H2O 到 H2 的高效光催化生产。最后,还讨论了在发现和进一步探索茧催化剂材料方面仍然存在的主要挑战和未来可能的发展方向。我们期待这篇综述能为设计用于光催化整体水分离的高性能茧催化剂提供真知灼见,并激发更多的研究兴趣。
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