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Hydride-Mediated Electronic Stitching at Interfaces of Ligand-Protected Gold Nanoclusters.

Created on 02 Sep 2026

Authors

Endong Wang, Xiaxi Lei, Lingzhang Xu, Gang Wang, Wen Wu Xu, Hongsheng Zhai

Published in

The journal of physical chemistry. A. Volume 130. Issue 34. Pages 6776-6782. Aug 27, 2026.

Abstract

Hydride-containing ligand-protected gold nanoclusters present a distinctive bonding problem: despite its negligible steric bulk, hydride can contribute to the stabilization of compact gold frameworks. Here we show that each kernel surface bridging hydride in gold nanohydride clusters forms a local three-center two-electron Au2H(2e) superatomic connector. Across four reported clusters, [Au20H3]3+, [Au22H3]3+, [Au24H3]3+, and [Au22H4]2+, hydride-bridged Au-Au contacts with the Au2H(2e) are contracted, the Au-H distances are longer than typical Au-H bond, and standard electron counting is compatible with electron-deficient Au2H connector. Pipek-Mezey localized orbitals further reveal continuous Au-H-Au three-center topology, while a simple Au2H+ reference model captures the essential orbital pattern of this local motif. Rather than replacing global superatomic electron counting, the Au2H connector picture provides a local bonding complement that explains how surface hydrides electronically assemble adjacent gold fragments at kernel interfaces. Exploratory hydride-containing model clusters illustrate the possible transferability of this motif. These results reposition surface hydrides from passive electron-counting ligands to atomically compact local connectors, providing a chemically intuitive framework for understanding hydride-stabilized gold nanoclusters.

PMID:
42679117
Bibliographic data and abstract were imported from PubMed on 02 Sep 2026.

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