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配体保护的金/银超原子:现状与新趋势

Ligand-protected gold/silver superatoms: current status and emerging trends.

作者信息

Hirai Haru, Ito Shun, Takano Shinjiro, Koyasu Kiichirou, Tsukuda Tatsuya

机构信息

Department of Chemistry, Graduate School of Science, The University of Tokyo 7-3-1 Hongo, Bunkyo-ku Tokyo 113-0033 Japan

Elements Strategy Initiative for Catalysts and Batteries (ESICB), Kyoto University Katsura Kyoto 615-8520 Japan.

出版信息

Chem Sci. 2020 Oct 21;11(45):12233-12248. doi: 10.1039/d0sc04100a.

Abstract

Monolayer-protected gold/silver clusters have attracted much interest as nano-scale building units for novel functional materials owing to their nonbulk-like structures and size-specific properties. They can be viewed as ligand-protected superatoms because their magic stabilities and fundamental properties are well explained in the framework of the jellium model. In the last decade, the number of ligand-protected superatoms with atomically-defined structures has been increasing rapidly thanks to the well-established synthesis and structural determination by X-ray crystallography. This perspective summarizes the current status and emerging trends in synthesis and characterization of superatoms. The topics related to synthesis include (1) development of targeted synthesis based on transformation, (2) enhancement of robustness and synthetic yield for practical applications, and (3) development of controlled fusion and assembly of well-defined superatoms to create new properties. New characterization approaches are also introduced such as (1) mass spectrometry and laser spectroscopies in the gas phase, (2) determination of static and dynamic structures, and (3) computational analysis by machine learning. Finally, future challenges and prospects are discussed for further promotion and development of materials science of superatoms.

摘要

单层保护的金/银团簇因其非块状结构和尺寸特异性性质,作为新型功能材料的纳米级构建单元而备受关注。它们可被视为配体保护的超原子,因为其神奇的稳定性和基本性质在金属凝胶模型框架内得到了很好的解释。在过去十年中,由于通过X射线晶体学已确立的合成方法和结构测定,具有原子定义结构的配体保护超原子的数量迅速增加。这篇综述总结了超原子合成与表征的现状和新趋势。与合成相关的主题包括:(1)基于转化的靶向合成的发展;(2)提高实际应用中的稳定性和合成产率;(3)开发定义明确的超原子的可控融合和组装以创造新性质。还介绍了新的表征方法,如:(1)气相中的质谱和激光光谱;(2)静态和动态结构的测定;(3)通过机器学习进行的计算分析。最后,讨论了超原子材料科学进一步推广和发展面临的未来挑战与前景。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/10c9/8162828/c8104edc93dc/d0sc04100a-f1.jpg

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