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Direct spin-phonon coupling with nitrogen-vacancy centers in diamond

E. R. MacQuarrie, Gregory D. Fuchs

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Abstract

Gigahertz-frequency mechanical waves directly drive spin transitions in nitrogen-vacancy centers, offering a new way to control spins, sense strains, and study spin-phonon interactions at the nanoscale.

About this research paper

What this paper is about

Gigahertz-frequency mechanical waves directly drive spin transitions in nitrogen-vacancy centers, offering a new way to control spins, sense strains, and study spin-phonon interactions at the nanoscale.

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Method / approach

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Available abstract

Gigahertz-frequency mechanical waves directly drive spin transitions in nitrogen-vacancy centers, offering a new way to control spins, sense strains, and study spin-phonon interactions at the nanoscale.

Key concepts: Diamond, Vacancy defect, Nitrogen, Coupling (piping), Phonon, Condensed matter physics, Spin (aerodynamics), Materials science

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