Structural, electronic, and optical properties of the Ag–Cu clusters with the equal number atoms
Source abstract
Abstract
The structural, electronic, and optical properties of the AgnCun (n = 7–14) clusters with the equal number of the Ag and Cu atoms are systematically investigated by using the density functional theory method. The results indicate that as n is 9, the structures of the AgnCun clusters begin to form the icosahedral core, and most Ag–Cu clusters with icosahedral cores have high stability. The Ag8Cu8 cluster has the highest mixing degree. The Ag10Cu10 cluster has relatively high energetic and electronic stability. For the density of states at the Fermi level, the Ag7Cu7, Ag8Cu8, Ag9Cu9, Ag10Cu10, and Ag14Cu14 clusters are mainly contributed by Cu atoms, while the Ag11Cu11, Ag12Cu12, and Ag13Cu13 clusters are mainly contributed by Ag atoms. Interestingly, the Cu16-II cluster is magnetic. The absorption spectra of the AgnCun clusters are red-shift comparing with the pure Ag2n clusters, but they are blue-shift comparing with the pure Cu2n clusters. The absorption properties of the AgnCun clusters in the visible region are better than the pure clusters. Graphical abstract
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Research context
OpenAlex topics: Nanocluster Synthesis and Applications · nanoparticles nucleation surface interactions · Quantum Dots Synthesis And Properties
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References (55)
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