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Open Access Publications from the University of California

Imaging the Local Charge Environment of Nitrogen-Vacancy Centers in Diamond.

  • Author(s): Mittiga, T;
  • Hsieh, S;
  • Zu, C;
  • Kobrin, B;
  • Machado, F;
  • Bhattacharyya, P;
  • Rui, NZ;
  • Jarmola, A;
  • Choi, S;
  • Budker, D;
  • Yao, NY
  • et al.
Abstract

Characterizing the local internal environment surrounding solid-state spin defects is crucial to harnessing them as nanoscale sensors of external fields. This is especially germane to the case of defect ensembles which can exhibit a complex interplay between interactions, internal fields, and lattice strain. Working with the nitrogen-vacancy (NV) center in diamond, we demonstrate that local electric fields dominate the magnetic resonance behavior of NV ensembles at a low magnetic field. We introduce a simple microscopic model that quantitatively captures the observed spectra for samples with NV concentrations spanning more than two orders of magnitude. Motivated by this understanding, we propose and implement a novel method for the nanoscale localization of individual charges within the diamond lattice; our approach relies upon the fact that the charge induces a NV dark state which depends on the electric field orientation.

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