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1 ventional spin S = 1 defects such as diamond nitrogen-vacancy centers.
2 mentally realize this platform using diamond nitrogen-vacancy centers and use it to investigate magno
3 ble parameters, indicate that decoherence of Nitrogen-Vacancy centers can be controlled externally to
4 oherent dynamics of a single central spin (a nitrogen-vacancy center) coupled to a bath of spins (nit
5 We report on a coherently controlled diamond nitrogen-vacancy center electron spin qubit that is opti
6             The memories considered here are nitrogen-vacancy center ensembles (NVEs), each located i
7 ives to solid-state defects, such as diamond nitrogen vacancy centers for quantum information science
8                Fluorescent nanodiamonds with nitrogen-vacancy centers have become important nanoscale
9 f a single electronic spin associated with a nitrogen vacancy center in diamond can be coupled to the
10   Using a quantum sensor associated with the nitrogen vacancy center in diamond, we experimentally de
11 te-of-the-art control and measurement of the nitrogen vacancy center in diamond.
12 rature "strong-driving" dynamics of a single nitrogen vacancy center in diamond.
13 ry, we predicted that the negatively charged nitrogen vacancy center in piezoelectric aluminum nitrid
14      Using coherent manipulation of a single nitrogen vacancy center in room-temperature diamond, ful
15     We measure spin coherence times T(2) for nitrogen vacancy centers in 150 nm-thick bonded membrane
16  Radio frequency (RF) magnetometers based on nitrogen vacancy centers in diamond are predicted to off
17   Utilizing a scanning magnetometer based on nitrogen vacancy centers in diamond, we uncover competin
18 vered by the microwave transmission line, to nitrogen--vacancy centers in the diamond microcrystal.
19 gnetometry using a single-electron spin of a nitrogen-vacancy center in a diamond probe to unambiguou
20 herent orbital and spin dynamics of a single nitrogen-vacancy center in diamond over time scales span
21 n individual electron spin associated with a nitrogen-vacancy center in diamond was used to gain insi
22 e-of-the-art solid-state defects such as the nitrogen-vacancy center in diamond, this contrast is app
23    We consider an electronic spin, such as a nitrogen-vacancy center in diamond, weakly coupled to a
24  which are part of a spin bath surrounding a nitrogen-vacancy center in diamond.
25 n correlated sensing schemes, using a single nitrogen-vacancy center in diamond.
26                       The negatively charged nitrogen-vacancy center in fluorescent nanodiamonds (FND
27  the generation of terahertz radiation using nitrogen-vacancy centers in a diamond single crystal.
28  greater, respectively, than those seen with nitrogen-vacancy centers in diamond and > 85-fold greate
29                                Sensors using nitrogen-vacancy centers in diamond are a promising tool
30            The exceptional spin coherence of nitrogen-vacancy centers in diamond motivates their func
31   We implemented the QRB-guided imaging with nitrogen-vacancy centers in diamond nanocrystals, which
32    We use single-spin qubits associated with nitrogen-vacancy centers in diamond to probe Johnson noi
33 y to previous works based on quantum dots or nitrogen-vacancy centers in diamond, our proposal does n
34 pin qubit: phosphorous donors in silicon and nitrogen-vacancy centers in diamond.
35 eto-optical properties of negatively charged nitrogen-vacancy centers in the FND, the SELFIA platform
36 red waves are then recorded using a scanning nitrogen vacancy center magnetometer that allows subwave
37                 Our work highlights scanning nitrogen-vacancy center magnetometry as a quantitative p
38 ization measurements and spatially resolving nitrogen-vacancy center magnetometry, we show that Fe:Mo
39  apply the technique to two cases related to Nitrogen Vacancy Centers (NV).
40 s for controlling various coherence times of Nitrogen-Vacancy centers; our method is based on a hybri
41  the microcavity tuned to resonance with the nitrogen-vacancy center's optical transition, we use exc
42 etected magnetic resonance (ODMR) of diamond nitrogen vacancy centers significantly depends on the ph
43 Despite the motion and random orientation of nitrogen-vacancy centers suspended in the optical trap,
44 , room-temperature readout of an ensemble of nitrogen-vacancy centers via strong coupling to a dielec
45 to extend the spin coherence time of shallow nitrogen-vacancy centers, we demonstrate magnetic field
46  based on defects in diamonds, the so-called nitrogen-vacancy centers, which change their optical pro
47 ated by simulating quantum open systems with Nitrogen-Vacancy centers, which has become an increasing