Zhu Yuan-Yuan, He Yuan-Yuan, Li Yan-Xiang, Liu Chun-Hua, Lin Wenbin
School of Chemistry and Chemical Engineering and Anhui Key Laboratory of Advanced Catalytic Materials and Reaction Engineering, Hefei University of Technology, 193 Tunxi Road, Hefei, 230009, China.
Department of Chemistry, The University of Chicago, 929 E 57th Street, Chicago, IL 60637, USA.
Chemistry. 2024 Jul 2;30(37):e202400842. doi: 10.1002/chem.202400842. Epub 2024 Jun 11.
Recent interest has surged in using heterogeneous carriers to boost synergistic photocatalysis for organic transformations. Heterogeneous catalysts not only facilitate synergistic enhancement of distinct catalytic centers compared to their homogeneous counterparts, but also allow for the easy recovery and reuse of catalysts. This mini-review summarizes recent advancements in developing heterogeneous carriers, including metal-organic frameworks, covalent-organic frameworks, porous organic polymers, and others, for synergistic catalytic reactions. The advantages of porous materials in heterogeneous catalysis originate from their ability to provide a high surface area, facilitate enhanced mass transport, offer a tunable chemical structure, ensure the stability of active species, and enable easy recovery and reuse of catalysts. Both photosensitizers and catalysts can be intricately incorporated into suitable porous carriers to create heterogeneous dual photocatalysts for organic transformations. Notably, experimental evidence from reported cases has shown that the catalytic efficacy of heterogeneous catalysts often surpasses that of their homogeneous analogues. This enhanced performance is attributed to the proximity and confinement effects provided by the porous nature of the carriers. It is expected that porous carriers will provide a versatile platform for integrating diverse catalysts, thus exhibiting superior performance across a range of organic transformations and appealing prospect for industrial applications.
最近,利用非均相载体促进有机转化的协同光催化受到了广泛关注。与均相催化剂相比,非均相催化剂不仅有助于不同催化中心的协同增强,还便于催化剂的回收和再利用。本综述总结了开发用于协同催化反应的非均相载体(包括金属有机框架、共价有机框架、多孔有机聚合物等)的最新进展。多孔材料在非均相催化中的优势源于其提供高表面积、促进传质增强、提供可调节化学结构、确保活性物种稳定性以及便于催化剂回收和再利用的能力。光敏剂和催化剂都可以巧妙地掺入合适的多孔载体中,以制备用于有机转化的非均相双光催化剂。值得注意的是,已报道案例的实验证据表明,非均相催化剂的催化效率往往超过其均相类似物。这种性能的提升归因于载体多孔性质所提供的邻近效应和限域效应。预计多孔载体将为整合多种催化剂提供一个通用平台,从而在一系列有机转化中表现出优异性能,并具有诱人的工业应用前景。