Skip to main content

Thank you for visiting You are using a browser version with limited support for CSS. To obtain the best experience, we recommend you use a more up to date browser (or turn off compatibility mode in Internet Explorer). In the meantime, to ensure continued support, we are displaying the site without styles and JavaScript.

Highly selective detection of individual nuclear spins with rotary echo on an electron spin probe


We consider an electronic spin, such as a nitrogen-vacancy center in diamond, weakly coupled to a large number of nuclear spins and subjected to the Rabi driving with a periodically alternating phase. We show that by switching the driving phase synchronously with the precession of a given nuclear spin, the interaction to this spin is selectively enhanced, while the rest of the bath remains decoupled. The enhancement is of resonant character. The key feature of the suggested scheme is that the width of the resonance is adjustable and can be greatly decreased by increasing the driving strength. Thus, the resonance can be significantly narrowed, by a factor of 10–100 in comparison with the existing detection methods. Significant improvement in selectivity is explained analytically and confirmed by direct numerical many-spin simulations. The method can be applied to a wide range of solid-state systems.


Detecting a single nuclear spin is an ultimate goal in nuclear magnetic resonance, actively pursued using various techniques1,2,3,4,5,6,7,8. Moreover, one-by-one detection, characterization and manipulation of individual nuclear spins in solids is vital for harnessing them as a resource for quantum information processing9,10,11,12,13,14,15,16,17,18,19,20. The crucial problem, hindering the progress in this area, is to separate the weak signal, produced by a given weakly coupled nuclear spin, from the much stronger background created by all other spins and by the ambient magnetic noise. I.e., the detector must possess high selectivity to separate the signal of the target spin from the action of other spins and from magnetic noise.

It has been recently shown that an electron spin of the nitrogen-vacancy (NV) centers in diamond is an excellent nuclear spin detector5,6,7,8,21,22,23,24,25,26,27. By applying the dynamical decoupling protocols to the NV spin (pulse5,6,7 or continuous8,27), the individual nuclear spins around the NV center can be detected one by one in a resonant manner: the NV spin becomes decoupled from all nuclear spins, except the one which satisfies a stringent resonance condition. The resonating nuclear spin strongly affects the NV spin motion and hence can be detected and the width of the resonances produced by different nuclear spins determines selectivity. However, in all current schemes this width is naturally limited, being determined by the strength of the hyperfine coupling between the target nuclear spin and the NV spin.

Overcoming this limitation and drastically narrowing the resonances in a systematic way, in order to significantly improve the detection selectivity, is of much importance. Here we present a scheme which achieves that goal. It employs the periodically changing Rabi driving on the NV center’s spin (multiple rotary echo)28,29,30 with a specially chosen period to detect the nuclear spins. The width of a resonance, corresponding to detection of a given nuclear spin is inversely proportional to the Rabi driving strength and therefore can be directly adjusted in experiment. As a result, the resonance peak width is narrowed by a factor of 10 − 100 in comparison with the existing schemes. This narrowing greatly enhances the resolution, which is very important for accurate characterization of the nuclear-spin environment of the NV center6,7,8,12,13 and for NV-based nuclear magnetic resonance at nanoscale21,25,26. Thus, our approach combines excellent protection from magnetic noise offered by the rotary echo and greatly enhanced selectivity in detection of individual nuclear spins. This approach can also be used with other electronic spins as detectors, e.g. spins of dopant atoms in semiconductors or other defect centers in various materials.


We consider the electronic spin S = 1 of the NV center subjected to a moderate (tens to hundreds of Gauss) static bias field along the symmetry axis. The NV spin possesses three well-separated states mNV = 0, 1 and −1 (denoted below as ) and is manipulated by applying the microwave driving at resonance with the transition between the states and , as shown in Fig. 1; the level remains idle and will be further ignored. The NV spin is coupled to a nuclear spin I: e.g., a 13C nuclear spins in diamond (I = 1/2), coupled to the NV center via dipolar interaction. To simplify consideration, we temporarily omit the coupling of the NV spin to other 13C spins in the sample, considering the case of many nuclear spins later (see also Supplementary Information). In the coordinate frame rotating with the frequency of the resonant microwave driving, the system is described by the Hamiltonian

Figure 1

Rotary echo protocol: Rabi driving is applied to the NV electron spin at the frequency of the transition between the states mNV = 0 and mNV = 1.

The phase of driving is periodically switched by 180°, i.e. the driving field in the rotating frame periodically changes between +h and −h.

where and describe the NV spin and Ix,z are the operators of the target nuclear spin, h is the Rabi driving field (usually, few to few tens of MHz), ωL is the Larmor frequency of the nuclear spin, and are the components of the hyperfine coupling and we assume ħ = 1 throughout the text.

During the rotary echo experiment the direction of the Rabi driving field (i.e. the phase of driving) periodically changes between +x (along the x-axis) and −x (opposite to the x-axis), as shown in Fig. 1. Here we consider symmetrized protocol, consisting of N rotary echo cycles; within each cycle the driving field is along +x during the two outer segments, each of duration T and is along −x during the inner segment of duration 2T. Therefore, the Hamiltonian (1) describes the two outer segments of the rotary echo cycle and the Hamiltonian for the inner segment is obtained by replacing h → −h. Below, we denote these two Hamiltonians as H+ and H, respectively, so the evolution operator for a single cycle is

and the full N-cycle protocol is described by the evolution operator U(N) = UN. Generally, periodic switching of the Rabi field in the regime of strong driving leads to highly efficient decoupling of the NV electronic spin from the surrounding spins29,30,31. However, in a special resonant regime, where the Rabi field is switched synchronously with the Larmor precession of the target nuclear spin, quantum states of the NV center spin and the target nuclear spin become entangled. After many rotary-echo cycles, , this entanglement becomes detectable despite the weak coupling between the NV and target spins. This approach is close in spirit to the “stroboscopic matching” idea32.

To qualitatively understand this phenomenon, we analyze the evolution of the system assuming small coupling , so that the zero-order Hamiltonians are . The corresponding zero-order evolution operator is given by

where . I.e., the nucleus and the NV center are practically decoupled: over one cycle, the nuclear spin rotates around the z-axis by the angle 2φ and this rotation does not depend on the state of the NV spin. However, if the driving is switched in resonance with the nuclear spin precession, so that the switching time has a special value,

then sin2φ = 0 and the operator U0 is unity, i.e. the effect of the zero-order Hamiltonian is null after one cycle. Then the smaller higher-order corrections will become important, since their effect will accumulate over many rotary echo cycles, undisturbed by the zero-order terms. The detailed analysis (details are given in Supplementary Information) shows that in this resonance case the nuclear spin evolution changes drastically: the rotation axis tilts towards y axis, the rotation angle per cycle is of order of and most importantly, the nuclear spin entangles with the NV spin through the operator . I.e., at resonance the nuclear spin rotates in different directions depending on whether the NV spin is in the state or , where are the eigenstates of Sy with the eigenvalues Sy = ±1/2, respectively.

We consider an experiment where the NV spin is prepared in the state mNV = 1 and the operator Sz(N) is measured after N rotary echo cycles. At resonance, the initial coherent superposition is decohered in the basis as a result of entanglement with the unpolarized nuclear spin, so that the resonance can be detected by sudden onset of strong decay of Sz(N) Analytical solution, which remains valid at long times , is derived as explained in the Methods section, also see Supplementary Information for details. The result is:

and in the vicinity of the resonance and , where ϕ = hT. The signal envelope as a function of the switching time T (or the angle φ) has Lorentzian shape with the width (for ) and the depth . To maximize the depth, the driving should be adjusted to have ϕ = hT = πm with integer m. This also minimizes interference between different nuclear spins and the influence of the fluctuations in the driving power, see Supplementary Information and below we always assume this condition satisfied. Typical dependence of the signal on T is shown in Fig. 2, where the resonances at Tk=1 and Tk=2 are clearly seen. The analytical solution (5) is very precise: it practically coincides with the direct numerical simulation of the two-spin system described by the Hamiltonian (1).

Figure 2

(a) Generally, the rotary echo protocol efficiently decouples the nuclear spin from the NV center: evolution of the nuclear spin is practically independent of the NV spin state (left). However, when the switching is on resonance with the nuclear spin precession (T = Tk), the nuclear spin entangles with the NV spin: its evolution is conditioned on the initial NV spin state (right). (b) When T becomes equal to the resonance value Tk, entanglement with the nuclear spin leads to faster decay of the NV electron spin, seen as a resonant drop of the signal. Graph shows the rotary echo signal (defined everywhere in the paper as ) after N = 50 cycles as a function of T, for ωL = 2π · 430 kHz, driving h = 2π · 3.51 MHz and coupling constants , . The resonances of the orders k = 1 and k = 2 are marked with green dashed lines.

For a weakly coupled nucleus, located sufficiently far from the NV center, the hyperfine coupling is determined primarily by dipolar interaction, so that , where R is the vector connecting the positions of the NV center and the nucleus and γe and γn are the electronic and nuclear gyromagnetic ratios, respectively. Therefore, the nuclei from different locations produce the peaks at different values of T and hence can be resolved.

To test our approach and to illustrate its performance under realistic circumstances, we performed direct simulations of the rotary-echo detection for the NV center coupled to 14 nuclear spins of 13C randomly located in diamond lattice. The simulation results, given in Fig. 3 for k = 3, clearly show the sharp, well-resolved peaks, corresponding to different nuclei, with selectivity in sub-kHz region, even for very modest driving h ~ 2π · 5 MHz (see also Supplementary Information for more details). Some nuclei, located at the symmetry-related positions in the lattice, have the same and hence the same resonance value of T; to resolve them, the static bias field should be tilted away from the symmetry axis of the NV center6. The simulations also confirm our conclusion (see Supplementary Information) that the NV-mediated interaction between the nuclear spins, caused by the driving, does not noticeably affect the detection efficiency.

Figure 3

(a) Rotary echo signal after N = 100 cycles, as a function of the switching time T for a NV spin coupled to 14 13C nuclear spins, randomly placed in the diamond lattice with natural abundance, for ωL = 2π · 428 kHz. Driving h is adjusted so that hT = 28π (so that 4.59 ≤ (h/2π) ≤ 5.28 MHz). The region corresponding to the resonances of the order k = 3 is shown. Theoretically expected resonances are marked with green lines; each of the lines marked with arrows correspond to a pair of nuclei located at the symmetry-related sites and having almost the same value of . Parameters of the nuclear spins are given in Supplementary Information. (be) Magnified view of the different areas of the panel (a).

For a fixed total interrogation time tN = 4NT, the resonance width determines selectivity of the protocol, i.e. the ability to resolve two nuclei with close hyperfine couplings and (i.e. , ). High selectivity of the suggested scheme is determined by the small width of the resonances achieved at , this width is and decreases as driving h increases (for estimates here and below we neglect the difference between and , taking ). The resonance width ΔT should be compared to the distance between the k-order resonances from two nuclear spins, which is . Thus, the resonances are resolved when . For a typical experiment, detecting 13C spins, with the bias field of 400 G (ωL = 2π · 428 kHz) and driving of h = 2π · 10 MHz, for k = 3, the condition of resolved resonances is .

Note that the protocols discussed in this work are, in fact, two-dimensional, with the signal depending on some adjustable parameter (T for our scheme, τ for the pulse dynamical decoupling, etc.) and on the total interrogation time. Analyzing the latter dependence was proposed8 as a way to increase resolution; this option can also be used within the pulse dynamical decoupling detection and within the protocol presented here. However, the resulting improvement strongly depends on experimental details and is beyond the scope of the present paper.


The fact that the resonance width can be adjusted by simply changing the driving h is a key feature of the proposed protocol, which leads to great improvement in selectivity. In the currently existing detection schemes, the width of the resonance is naturally limited, being determined by the coupling constants and . The scheme proposed here is the first, to our knowledge, where the width of the resonances can be tuned at experimentalist’s will; this allows narrowing of the resonances by a factor of 10–100 in comparison with other existing schemes (see Supplementary Information for details), albeit at the expense of the longer interrogation time. Also, stronger driving greatly improves the coherence time of the NV spin29,30,31. Moreover, using the rotary echo protocol with the optimal choice of driving h significantly reduces the impact of slow fluctuations in the driving strength, which is an important limiting factor for the Hartmann-Hahn double resonance detection8,32.

Above we omitted the NV center’s own 14N (or 15N) nuclear spin: we assume that it is 100% polarized in the state with a given mI and that the driving is applied at the frequency of the corresponding transition. Without such polarization, the hyperfine levels which are not in resonance with the Rabi driving field are quickly decohered, since the on-site hyperfine coupling (2.15 MHz for 14N and 3.03 MHz for 15N) is comparable to a typical driving strength, so that overall detection quality degrades (see Supplementary Information). Fortunately, polarization of the NV’s own nuclear spin can be easily achieved in different ways12,15,33,34,35 and incorporated in the experimental protocol.

Concluding, we presented a scheme for one-by-one detection of the nuclear spins weakly coupled to an electron spin (e.g. the NV center in diamond), using the rotary echo protocol. The key feature of this scheme is the ability to experimentally adjust and thus greatly narrow, the width of the resonance peaks corresponding to the detected nuclear spins. When compared with the existing approaches, the scheme proposed here provides significant improvement in the selectivity of the nuclear spin detection, albeit being more demanding to the quality of experimental setup (see Supplementary Information) in terms of the fast switching of the driving phase and the timing precision (~0.5 ns, determined by the width of the resonant peak) and increased interrogation time (equal to 4NT, about 1 ms per run for parameters used in Fig. 3). Moreover, the scheme discussed here and the considerations above, are not specific to the NV center and can be applied to a wide range of other electron-nuclear systems, such as dopant atoms in semiconductors and other color centers, using the electron spins as probes for the surrounding nuclei.


Analytical Calculations

NV center is subjected to the static magnetic field parallel to its quantization axis and to a strong driving rf field at the frequency of the transition between the two lowest sublevels, mNV = 0 and mNV = 1 (  and , respectively) and coupled to a 13C nuclear spin I = 1/2 via dipole-dipole interaction; the sublevel mNV = −1 is idle and thus ignored. Within the secular approximation, in the frame rotating with the frequency of the rf field, the system’s Hamiltonian is

where , h is the Rabi driving field, ωL is the Larmor frequency of the nuclear spin and Ai are the components of the hyperfine field created by the NV spin at the nuclear spin position. The coupling constants are , where R is the vector connecting NV center and the nuclear spin, i = x, y, z, γe and γn are the electronic and nuclear gyromagnetic ratios and δij is the Kronecker’s symbol. For a remote nucleus, the coupling strength is small, so . Introducing the operator , with appropriate rotation of the nuclear spin coordinate axes, the Hamiltonian becomes

where and and the terms are neglected, since they only slightly renormalize ωL, and . We parametrize and , where θ is the angle between the hyperfine field and the NV symmetry axis and is related to the polar angle, θR, of the vector R through and .

The evolution operator U of a single rotary echo cycle is given by Eq. 2 of the main text. We analyze dynamics by finding lnU to the first order in the small parameter g = ωh/h. We achieve that by relating the Hamiltonian H of Eq. 1 and the non-interacting (zero-order) Hamiltonian (see Eq. 3). This is done in two steps; first we apply to H0 the Schrieffer-Wolfe type transformation via the unitary operator and obtain

where we neglected terms of the order g2ωL, g2ωh and higher. Next transformation, with , eliminates the last term in the equation above and we find that . Correspondingly, for the evolution operator we have , where

with H = H0h); here W1 disappears as it commutes with W0 and is even with respect to the sign change of h. Expanding W0 in terms of small g, we find U and re-write it as a single exponential,

where ϕ = hT and the coefficients rx = −sinθ  cosφ  sinϕ, ry = sinθ  sinφ  cosϕ and rz = −cosθ  sinϕ; the total sign ± should be chosen to be the same as the sign of cos2φ, whereas the parameter is given by tanγ = tan2φ. The rotary echo signal after N cycles is found by evaluating the trace, ; by writing U as a single exponential, UN is evaluated in a straightforward but lengthy manner (see Supplementary Information for details), giving the results mentioned in the main text.

Numerical Simulations

The numerical simulations were performed for one electron spin of the NV center and 14 nuclear spins 13C located at the sites of the diamond lattice. To make the system reasonably realistic, the lattice sites for the first six nuclear spins were taken as close as possible to the spins detected in ref. 5. The rest of the spins were placed randomly on the diamond lattice, with the restriction that the resulting density of the 13C spins corresponds to their natural abundance of 1.08%. The simulations were performed in the rotating frame, using the Hamiltonian with 14 nuclear spins:

The electron spin of the NV center was assumed to be localized at the mid-point between the positions of the nitrogen atom and the vacancy. The hyperfine interaction between the j-th nuclear spin and the electron spin were assumed to be of purely dipole-dipole nature and the interaction constants and were calculated using the simulated locations of the nuclear spins. Additional numerical results and comparison with the pulse-based detection method are given in Supplementary Information.

Additional Information

How to cite this article: Mkhitaryan, V. V. et al. Highly selective detection of individual nuclear spins with rotary echo on an electron spin probe. Sci. Rep. 5, 15402; doi: 10.1038/srep15402 (2015).


  1. Degen, C. L., Poggio, M., Mamin, H. J., Rettner, C. T. & Rugar, D. Nanoscale magnetic resonance imaging. Proc. Nat. Acad. Sci. 106, 1313–1317 (2009).

    CAS  ADS  Article  Google Scholar 

  2. Vincent, R., Klyatskaya, S., Ruben, M., Wernsdorfer, W. & Balestro, F. Electronic read-out of a single nuclear spin using a molecular spin transistor. Nature 488, 357–360 (2012).

    CAS  ADS  Article  Google Scholar 

  3. Pla, J. J. et al. High-fidelity readout and control of a nuclear spin qubit in silicon. Nature 496, 334–338 (2013).

    CAS  ADS  Article  Google Scholar 

  4. Morton, J. J. L., McCamey, D. R., Eriksson, M. A. & Lyon, S. A. Embracing the quantum limit in silicon computing. Nature 479, 345–353 (2011).

    CAS  ADS  Article  Google Scholar 

  5. Taminiau, T. H. et al. Detection and control of individual nuclear spins using a weakly coupled electron spin. Phys. Rev. Lett. 109, 137602 (2012).

    CAS  ADS  Article  Google Scholar 

  6. Kolkowitz, S., Unterreithmeier, Q. P., Bennett, S. D. & Lukin, M. D. Sensing distant nuclear spins with a single electron spin. Phys. Rev. Lett. 109, 137601 (2012).

    ADS  Article  Google Scholar 

  7. Zhao, N. et al. Sensing single remote nuclear spins. Nature Nanotech. 7, 657–662 (2012).

    CAS  ADS  Article  Google Scholar 

  8. London, P. et al. Detecting and polarizing nuclear spins with double resonance on a single electron spin. Phys. Rev. Lett. 111, 067601 (2013).

    CAS  ADS  Article  Google Scholar 

  9. Dutt, M. V. G. et al. Quantum register based on individual electronic and nuclear spin qubits in diamond. Science 316, 1312–1316 (2007).

    Article  Google Scholar 

  10. Cappellaro, P., Jiang, L., Hodges, J. S. & Lukin, M. D. Coherence and control of quantum registers based on electronic spin in a nuclear spin bath. Phys. Rev. Lett. 102, 210502 (2009).

    CAS  ADS  Article  Google Scholar 

  11. Pfaff, W. et al. Unconditional quantum teleportation between distant solid-state quantum bits. Science 345, 532–535 (2014).

    CAS  ADS  MathSciNet  Article  Google Scholar 

  12. Taminiau, T. H., Cramer, J., van der Sar, T., Dobrovitski, V. V. & Hanson, R. Universal control and error correction in multi-qubit spin registers in diamond. Nature Nano. 9, 171–176 (2014).

    CAS  ADS  Article  Google Scholar 

  13. Neumann, P. et al. Multipartite entanglement among single spins in diamond. Science 320, 1326–1329 (2008).

    CAS  ADS  Article  Google Scholar 

  14. Awschalom, D. D., Bassett, L. C., Dzurak, A. S., Hu, E. L. & Petta, J. R. Quantum spintronics: engineering and manipulating atom-like spins in semiconductors. Science 339, 1174–1179 (2013).

    CAS  ADS  Article  Google Scholar 

  15. Fuchs, G. D., Burkard, G., Klimov, P. V. & Awschalom, D. D. A quantum memory intrinsic to single nitrogen-vacancy centres in diamond. Nature Phys. 7, 789–793 (2011).

    ADS  Article  Google Scholar 

  16. Maurer, P. C. et al. Room-temperature quantum bit memory exceeding one second. Science 336, 1283–1286 (2012).

    CAS  ADS  Article  Google Scholar 

  17. Zhang, Y., Ryan, C. A., Laflamme, R. & Baugh, J. Coherent control of two nuclear spins using the anisotropic hyperfine interaction. Phys. Rev. Lett. 107, 170503 (2011).

    ADS  Article  Google Scholar 

  18. Hodges, J. S., Yang, J. C., Ramanathan, C. & Cory, D. G. Universal control of nuclear spins via anisotropic hyperfine interactions. Phys. Rev. A 78, 010303(R) (2008).

    ADS  Article  Google Scholar 

  19. Childress, L. et al. Coherent dynamics of coupled electron and nuclear spin qubits in diamond. Science 314, 281–285 (2006).

    CAS  ADS  Article  Google Scholar 

  20. Dobrovitski, V. V., Fuchs, G. D., Falk, A. L., Santori, C. & Awschalom, D. D. Quantum control over single spins in diamond. Ann. Rev. Cond. Matter Phys. 4, 23–50 (2013).

    CAS  ADS  Article  Google Scholar 

  21. Schirhagl, R., Chang, K., Loretz, M. & Degen, C. L. Nitrogen-vacancy centers in diamond: nanoscale sensors for physics and biology. Ann. Rev. Phys. Chem. 65, 83–105 (2014).

    CAS  ADS  Article  Google Scholar 

  22. Ajoy, A., Bissbort, U., Lukin, M. D., Walsworth, R. & Cappellaro, P. Atomic-scale nuclear spin imaging using quantum-assisted sensors in diamond. arXiv: 1407.3134.

  23. Kost, M., Cai, J. & Plenio, M. B. Resolving single molecule structures with nitrogen-vacancy centers in diamond. arXiv: 1407.6262.

  24. Zhao, N., Hu, J.-L., Ho, S.-W., Wan, J. T. K. & Liu, R. B. Atomic-scale magnetometry of distant nuclear spin clusters via nitrogen-vacancy spin in diamond. Nature Nano. 6, 242–246 (2011).

    CAS  ADS  Article  Google Scholar 

  25. Mamin, H. J. et al. Nanoscale nuclear magnetic resonance with a nitrogen-vacancy spin sensor. Science 339, 557–560 (2013).

    CAS  ADS  Article  Google Scholar 

  26. Staudacher, T. et al. Nuclear magnetic resonance spectroscopy on a (5-Nanometer)3 sample volume. Science 339, 561–563 (2013).

    CAS  ADS  Article  Google Scholar 

  27. Cai, J., Jelezko, F., Plenio, M. B. & Retzker, A. Diamond-based single-molecule magnetic resonance spectroscopy. New J. Phys. 15, 013020 (2013).

    ADS  Article  Google Scholar 

  28. Solomon, I. Rotary spin echoes. Phys. Rev. Lett. 2, 301 (1959).

    CAS  ADS  Article  Google Scholar 

  29. Laraoui, A. & Meriles, C. A. Rotating frame spin dynamics of a nitrogen-vacancy center in a diamond nanocrystal. Phys. Rev. B 84, 161403 (2011).

    ADS  Article  Google Scholar 

  30. Aiello, C. D., Hirose, M. & Cappellaro, P. Composite-pulse magnetometry with a solid-state quantum sensor. Nature Comm. 4, 1419 (2013).

    ADS  Article  Google Scholar 

  31. Mkhitaryan, V. V. & Dobrovitski, V. V. Decay of the rotary echoes for the spin of a nitrogen-vacancy center in diamond. Phys. Rev. B 89, 224402 (2014).

    ADS  Article  Google Scholar 

  32. Kaplan, D. E. & Hahn, E. L. Expériences de double radiation en résonance magnétique par la méthode d’impulsion. J. Phys. Radium 19, 821–825 (1958).

    Article  Google Scholar 

  33. Jacques, V. et al. Dynamic polarization of single nuclear spins by optical pumping of nitrogen-vacancy color centers in diamond at room temperature. Phys. Rev. Lett. 102, 057403 (2009).

    CAS  ADS  Article  Google Scholar 

  34. Neumann, P. et al. Single-shot readout of a single nuclear spin. Science 329, 542–544 (2010).

    CAS  ADS  Article  Google Scholar 

  35. van der Sar, T. et al. Decoherence-protected quantum gates for a hybrid solid-state spin register. Nature 484, 82–86 (2012).

    CAS  ADS  Article  Google Scholar 

Download references


We thank R. Hanson, T. H. Taminiau, M. Raikh and H. Terletska for helpful and important discussions. This work was supported by the Department of Energy—Basic Energy Sciences under Contract No. DE-AC02-07CH11358.

Author information




V.V.D. and F.J. conceived the method, V.V.M. and V.V.D. performed analytical and numerical studies. All authors analyzed and discussed the results and participated in writing the manuscript.

Ethics declarations

Competing interests

The authors declare no competing financial interests.

Electronic supplementary material

Rights and permissions

This work is licensed under a Creative Commons Attribution 4.0 International License. The images or other third party material in this article are included in the article’s Creative Commons license, unless indicated otherwise in the credit line; if the material is not included under the Creative Commons license, users will need to obtain permission from the license holder to reproduce the material. To view a copy of this license, visit

Reprints and Permissions

About this article

Verify currency and authenticity via CrossMark

Cite this article

Mkhitaryan, V., Jelezko, F. & Dobrovitski, V. Highly selective detection of individual nuclear spins with rotary echo on an electron spin probe. Sci Rep 5, 15402 (2015).

Download citation

Further reading


By submitting a comment you agree to abide by our Terms and Community Guidelines. If you find something abusive or that does not comply with our terms or guidelines please flag it as inappropriate.


Quick links

Nature Briefing

Sign up for the Nature Briefing newsletter — what matters in science, free to your inbox daily.

Get the most important science stories of the day, free in your inbox. Sign up for Nature Briefing