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It is shown that Gd₃N@C₈₀ is a highly magnetic and very stable motif that allows enhanced contrast magnetic resonance imaging and electric dipole moment with potential for cancer treatment. Using a synergistic approach combining Stern-Gerlach experiments in beams and first-principles electronic structure studies, it is demonstrated that an isolated Gd₃N has a ground state spin moment of 23μB followed by a noncollinear state of 17.2μB only 880.3em0exmeV above the ground state. The large moment is largely due to localized f electrons. As a Gd₃N is embedded inside a C₈₀ cage, the localized f electrons maintain the magnetic character while the hybridization between the s, d states of isolated Gd₃N and p states of C₈₀ leads to a strongly bound motif with an interaction energy of 13.630.3em0exeV and a large highest-occupied-molecular-orbital--lowest-unoccupied-molecular-orbital gap of 1.480.3em0exeV. Gd₃N@C₈₀ is further shown to possess two isomers corresponding to the location of the N atom on either side of the Gd₃ triangle with an appreciable electric dipole moment and a low barrier of 910.3em0exmeV for transition between them offering potential for a fluctuating dipole.
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Qian et al. (2007) studied this question.
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