Quantum Memory on 13C–13C Dimers in Diamond with NV Centers: Simulation by Quantum Chemistry Methods

Individual electron–nuclear spin systems in solids are promising platforms for implementation of second-generation quantum technologies. The recognized leader among such systems is the negatively charged nitrogen–vacancy color center (NV center) in diamond with hyperfine coupling to nuclear spins of...

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Veröffentlicht in:Journal of applied spectroscopy 2023, Vol.90 (5), p.1000-1011
Hauptverfasser: Nizovtsev, A. P., Pushkarchuk, A. L., Kuten, S. A., Lyakhov, D., Michels, D. L., Gusev, A. S., Kargin, N. I., Kilin, S. Ya
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container_end_page 1011
container_issue 5
container_start_page 1000
container_title Journal of applied spectroscopy
container_volume 90
creator Nizovtsev, A. P.
Pushkarchuk, A. L.
Kuten, S. A.
Lyakhov, D.
Michels, D. L.
Gusev, A. S.
Kargin, N. I.
Kilin, S. Ya
description Individual electron–nuclear spin systems in solids are promising platforms for implementation of second-generation quantum technologies. The recognized leader among such systems is the negatively charged nitrogen–vacancy color center (NV center) in diamond with hyperfine coupling to nuclear spins of carbon-13 ( 13 C), which are widely used as a quantum memory in emerging quantum technologies because of their weak interaction with the environment. Recently, pairs of 13 C– 13 C nuclei (dimers) in diamond with NV centers have been proposed and actively studied for this purpose because they have extremely long coherence times (minutes at room temperature) in the singlet state. The eigenstates of the spin Hamiltonian of the NV– 13 C– 13 C system were found and used to calculate the probabilities of EPR transitions between nuclear-spin sublevels of NV-center states with electron spin projections m S = 0 and m S = –1. The obtained expressions form the basis for choosing the optimal parameters of microwave and radiofrequency pulses transforming a particular dimer into the singlet state. An example of such a prediction for a specific NV– 13 C– 13 C spin system using data for the spatial positions of the 13 C spins and the internal spin–spin couplings obtained earlier by quantum chemistry methods is presented.
doi_str_mv 10.1007/s10812-023-01625-4
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subjects Analytical Chemistry
Atomic/Molecular Structure and Spectra
Carbon 13
Color centers
Couplings
Diamonds
Dimers
Eigenvectors
Electron spin
Nuclear spin
Physics
Physics and Astronomy
Quantum chemistry
Quantum phenomena
Radio frequency
Room temperature
title Quantum Memory on 13C–13C Dimers in Diamond with NV Centers: Simulation by Quantum Chemistry Methods
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