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Structures, Electronic, and Spectral Properties of Doped Boron Clusters MB120/– (M = Li, Na, and K)
Author(s) -
Shixiong Li,
Zhengping Zhang,
ZhengWen Long,
Deliang Chen
Publication year - 2020
Publication title -
acs omega
Language(s) - English
Resource type - Journals
ISSN - 2470-1343
DOI - 10.1021/acsomega.0c02693
Subject(s) - boron , alkali metal , atom (system on chip) , doping , chemical bond , ion , density functional theory , electronic structure , atomic physics , materials science , cationic polymerization , crystallography , chemistry , computational chemistry , physics , optoelectronics , organic chemistry , computer science , polymer chemistry , embedded system
Structures and electronic properties of alkali metal atom-doped boron clusters MB 12 0/- (M = Li, Na, K) are determined using the CALYPSO method for the global minimum search followed by density functional theory. It is found that the global minima obtained for the neutral clusters correspond to the half-sandwich structure and those of the monoanionic clusters correspond to the boat-shaped structure. The neutral MB 12 (M = Li, Na, K) can be considered as a member of the half-sandwich doped B 12 clusters, and the geometrical pattern of anion MB 12 - (M = Li, Na, K) is a new structure that is different from other doped B 12 clusters. Natural population and chemical bonding analyses reveal that the alkali metal atom-doped boron clusters MB 12 - are characterized as charge transfer complexes, M + B 12 2- , resulting in symmetrically distributed chemical bonds and electrostatic interactions between cationic M + and boron atoms. The calculated spectra indicate that MB 12 0/- (M = Li, Na, K) has meaningful spectral features that can be compared with future experimental data. Our work enriches the varieties of geometrical structures of doped boron clusters and can provide much insight into boron nanomaterials.

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