The neutral silicon-vacancy center in diamond: spin polarization and lifetimes
arXiv:1705.10205 · doi:10.1103/PhysRevLett.119.096402
Abstract
We demonstrate optical spin polarization of the neutrally-charged silicon-vacancy defect in diamond (), an defect which emits with a zero-phonon line at 946 nm. The spin polarization is found to be most efficient under resonant excitation, but non-zero at below-resonant energies. We measure an ensemble spin coherence time at low-temperature, and a spin relaxation limit of . Optical spin state initialization around 946 nm allows independent initialization of and within the same optically-addressed volume, and emits within the telecoms downconversion band to 1550 nm: when combined with its high Debye-Waller factor, our initial results suggest that is a promising candidate for a long-range quantum communication technology.
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