Inorganic Chemistry · 2019 · 16 citations · 41 references
Natural SciencesChemistryMaterials ScienceCondensed Matter PhysicsMaterials ChemistryPhysical ChemistryAb Initio MethodsCluster ChemistryCluster CompoundsCondensed Matter TheoryDensity Functional TheoryMolecular Orbital TheoryCompressionCrystallographic CharacterizationEncapsulationFullerenesLigand-stabilized ClustersMetal-sulfur ClustersMolecular Metal ClustersStructural Characterization Of Clusters
Fullerene C84 is the third-most-abundant species after C60 and C70. In the past decade, a variety of C84-based clusterfullerenes have been well-studied experimentally, which otherwise do not include oxide clusterfullerenes (OCFs). In this work, we report a comprehensive inspection of Ho2O@C84, including its mass, spectroscopic, crystallographic, electrochemical (EC), and density functional theory (DFT) studies. Importantly, crystallographic data reveal an IPR cage of D2d(51591)-C84 with a linear endohedral Ho–O–Ho cluster, indicating that the compression effect of the C84 cage is less pronounced compared to that of a smaller cage. The experimentally observed structure is confirmed by DFT computations, which also verify its superior stability. Further studies suggest that Ho2O@C84 has reduced EC and HOMO–LUMO gaps compared to those of empty species, again demonstrating the effect of cluster encapsulation.
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Yan Zhao, Donald G. Truhlar · Theoretical Chemistry Accounts · 2007 · 30K citations · Full text
Natural Sciences, Chemistry, Physics +17
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Louis J. Farrugia · Journal of Applied Crystallography · 2012 · 11.8K citations