Capturing the Complexities of Catalyst–Support Interactions with the Help of Machine Learning
A
Andrew S. Rosen
(Department of Chemical and Biological Engineering)
Abstract
Abstract The structure of metal nanoparticles is central to their catalytic activity, but metal–support interactions are difficult to model via quantum‐mechanical calculations. Using a machine‐learned potential to model supported silver nanoparticles, it has been shown that the idealized nanoparticle shapes commonly invoked in the literature do not reflect experiments for diameters below 8 nm, as reported by Maxson and Szilvási.
Article Details
Volume / Issue
Vol. 64, Issue 49
Published
December 01, 2025
ISSN
1433-7851
Publisher
Wiley
Authors (1)
A
Andrew S. Rosen
Department of Chemical and Biological Engineering
Related Articles from this Journal
Extending Chain Length of PNP Pincer Ligands Triggers Catalytic Activity of Gold–Copper Nanoclusters in Aerobic Oxidations
Ying Zhang, Chao Ge et al.
Aug 2026
10.1002/anie.3126258
Downsizing the Histone H3–H4 Quaternary Structure Into Foldamer Mimetics Yields High‐Affinity and Cell‐Permeable Ligands of ASF1
Bo Li, Marie E. Perrin et al.
Aug 2026
10.1002/anie.4112426
Step‐Associated Cu‐Ceria Interfaces Enhance Catalytic Activity and Selectivity
Shuxuan Feng, Shan Jiang et al.
Aug 2026
10.1002/anie.5628406
Gold Clusters With Open‐Shell Ligands: Superatom Mediated Magnetic Interaction
Katsuya Mutoh, Kosei Hayashi et al.
Aug 2026
10.1002/anie.3543072
Oxophilic Gallium Single‐Atom Regulating Micropore‐Confined Os Atomic Clusters Enables Efficient Alkaline Hydrogen Electrocatalysis
Mengyang Yang, Ling Li et al.
Aug 2026
10.1002/anie.2044894