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用于能量转换和存储应用的原子层沉积催化剂设计与原子反应调制

Catalysts Design and Atomistic Reaction Modulation by Atomic Layer Deposition for Energy Conversion and Storage Applications.

作者信息

Jung Myung-Jin, Razazzadeh Alireza, Khan Hasmat, Kwon Se-Hun

机构信息

School of Materials Science and Engineering Pusan National University Busan Republic of Korea.

Institute of Materials Technology Pusan National University Busan Republic of Korea.

出版信息

Exploration (Beijing). 2025 Apr 21;5(4):e20240010. doi: 10.1002/EXP.20240010. eCollection 2025 Aug.

Abstract

Atomic layer deposition (ALD) technique has emerged as a fascinating tool for the design and synthesis of heterogeneous catalysts with atomic precision for energy conversion, generation, and storage applications. Here, we demonstrate the importance of the ALD for catalyst design by citing recently reported works, in particular, the emphasis has been given to the surface/interface engineering of catalysts for improving their catalytic efficiency in energy applications. To get insight into the reaction mechanism, the ALD-based routes for catalyst synthesis may revolutionize the field of sustainable energy conversion and storage. Moreover, the synthesis of supported nanoparticles with controlled shape and size has attracted great attention in catalysis owing to their unique properties. By taking advantage of the ALD, it is possible to synthesize catalysts at the atomic scale, particularly, site-selective ALD provides tremendous opportunities in catalytic efficiency and selectivity studies. Moreover, this review illustrates diverse heterogeneous catalysts with their limitations for energy-related applications and how the ALD technique can facilitate overcoming them. Finally, we deliberate the advancement in the ALD technique on heterogeneous catalyst design, and interface engineering of catalysts, and outline future perspectives of this technology in catalysis.

摘要

原子层沉积(ALD)技术已成为一种极具吸引力的工具,可用于设计和合成具有原子精度的非均相催化剂,以应用于能量转换、生成和存储领域。在此,我们通过引用近期报道的研究成果来证明ALD在催化剂设计中的重要性,尤其强调了催化剂的表面/界面工程,以提高其在能源应用中的催化效率。为深入了解反应机理,基于ALD的催化剂合成路线可能会彻底改变可持续能源转换和存储领域。此外,具有可控形状和尺寸的负载型纳米颗粒的合成因其独特性能在催化领域备受关注。利用ALD,可以在原子尺度上合成催化剂,特别是位点选择性ALD在催化效率和选择性研究方面提供了巨大机遇。此外,本综述阐述了各种非均相催化剂及其在能源相关应用中的局限性,以及ALD技术如何有助于克服这些局限性。最后,我们探讨了ALD技术在非均相催化剂设计和催化剂界面工程方面的进展,并概述了该技术在催化领域的未来前景。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/7f56/12380077/b2e95b07930b/EXP2-5-e20240010-g013.jpg

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