Electron paramagnetic resonance of the defect in -doped synthetic diamond
arXiv:1507.07036 · doi:10.1103/PhysRevB.92.165204
Abstract
Nitrogen is the dominant impurity in the majority of natural and synthetic diamonds, and the family of nitrogen vacancy-type () defects are crucial in our understanding of defect dynamics in these diamonds. A significant gap is the lack of positive identification of , the dominant charge state of , in diamond that contains a significant concentration of electron donors. In this paper we employ isotopically-enriched diamond to identify the EPR spectrum associated with and use the derived spin Hamiltonian parameters to identify in a natural isotopic abundance sample. The electronic wavefunction of the ground state and previous lack of identification is discussed. The EPR spectrum intensity is shown to correlate with H2 optical absorption over an order of magnitude in concentration.
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