电子结构对单原子催化剂电催化性能影响的研究进展OA北大核心
Recent Progress on the Effect of the Electronic Structure on Electrocatalytic Performance of Single Atom Catalysts
单原子催化剂由于其独特的电子结构和最高的原子利用率,在各种催化体系中具有广阔的应用前景.调节SACs催化剂的电子结构是其进一步发展的关键,可以通过调节电子性质来优化催化剂的吸附能和键能,从而提高催化活性和稳定性.本文通过SACs的电子结构及其相关知识,对SACs在催化中的作用有了全面的了解.由于电催化是一种减少碳排放和利用可再生能源的技术,并且作为解决日益严重的空气污染问题的方法而受到越来越多的关注,因此高性能催化剂的设计至关重要.为此,讨论了各种电子性质,如能带结构、轨道杂化和相关自旋态等.本文讨论了SACs的电子结构对其电化学催化性能的影响,并探讨了其与SACs活性和稳定性的关系.了解催化过程中电子结构的基本原理,可以为今后各种催化反应中催化剂的设计提供合理的指导.
Single atom catalysts(SACs)are promising candidates for various catalytic sys-tems due to their unique electronic structures and the highest atom utilization.Modulating the electronic structure of SACs catalysts is the key to its further development,can optimize the adsorption and bonding energies of the catalysts by regulating the electronic properties,and thus improves the catalytic activity and stability.Herein,we provide a comprehensive understanding of SACs in catalysis through their electronic structures and their associated knowledges.Various electronic properties have been discussed,such as energy band struc-ture,orbital hybridization and associated spin states,etc.Electrocatalysis as a technology for reducing carbon emissions and utilizing renewable energy sources which can address growing pollution problems,is receiving increasing attention,making the design of high-performance catalysts critical.From this review,we discusse how the electronic structure of SACs affects their electrochemical catalytic performance and explore its relationship with activity and sta-bility of SACs.The understanding of the fundamentals of electronic structures in catalytic processes can provide rational guidance for the design of catalysts in various catalytic reac-tions in the future.
何月轩;王同辉;文子;蒋青
吉林大学材料科学与工程学院,汽车材料教育部重点实验室,长春 130022
化学
单原子催化剂电子结构催化反应
single atom catalystselectronic structurecatalytic reaction
《物理学进展》 2024 (003)
136-156 / 21
This work was financially supported by National Natural Science Foundation of China(No.52130101),the National Key R&D Program of China(Grant No.2023YFB3003001),the fund of'World-class Universi-ties and World-class Disciplines',Ministry of Educa-tion,China,and'Xiaomi Young Scholar'Project.
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