Issue 47, 2024, Issue in Progress

Boron-doped scandium clusters B@Scn−1−/0/+ with n = 2–13: uncovering the smallest endohedrally doped cages

Abstract

A comprehensive study using density functional theory with the PBE functional and the Def2-TZVP basis set investigates the pure Scn+/0/− and doped Scn−1B+/0/− clusters with n = 1–13 in three charged states. B@Sc6+/0/− clusters emerge as the smallest doped cages identified so far, distinguished by their near-perfect octahedral geometry, with a B atom centrally enclosed in the Sc6+/0/− cages. Structural analysis reveals size-dependent trends, with a critical size at n = 6, marking a transition from exohedral to endohedral configuration, and a shift in the substitution-addition pattern of the B atom within the pure Sc host. Incorporation of a B atom induces electron redistribution, stabilizes high spin states and reduces energetic degeneracy. B-doping enhances the stability of the initial Scn+/0/− clusters, showing a consistent preference for cationic isomers. A molecular orbital (MO) analysis provides a detailed explanation for the observed energy degeneracy among various stable spin states by delving into their electronic configurations.

Graphical abstract: Boron-doped scandium clusters B@Scn−1−/0/+ with n = 2–13: uncovering the smallest endohedrally doped cages

Supplementary files

Article information

Article type
Paper
Submitted
10 Sep 2024
Accepted
21 Oct 2024
First published
30 Oct 2024
This article is Open Access
Creative Commons BY-NC license

RSC Adv., 2024,14, 34718-34732

Boron-doped scandium clusters B@Scn−1−/0/+ with n = 2–13: uncovering the smallest endohedrally doped cages

B. Nguyen-Ha, N. M. Tam, M. P. Pham-Ho and M. T. Nguyen, RSC Adv., 2024, 14, 34718 DOI: 10.1039/D4RA06541G

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