Nanoscale-NMR with Nitrogen Vacancy center spins in diamond
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Nitrogen-Vacancy (NV) center in diamond has been an emerging versatile tool for quantum sensing applications. Amongst various applications, nano-scale nuclear magnetic resonance (NMR) using a single or ensemble NV centers has demonstrated promising results, opening possibility of a single molecule NMR for its chemical structural studies or multi-nuclear spin spectroscopy for quantum information science. However, there is a key challenge, which limited the spectral resolution of NMR detection using NV centers; the interrogation duration for NV-NMR detection technique has been limited by the NV sensor spin lifetime (T1 ~ 3ms), which is orders of magnitude shorter than the coherence times of nuclear spins in bulk liquid samples (T2 ~ 1s) or intrinsic 13C nuclear spins in diamond. Recent studies have shown that quantum memory technique or synchronized readout detection technique can further narrow down the spectral linewidth of NMR signal. In this short review paper, we overview basic concepts of nanoscale NMR using NV centers, and introduce further developments in high spectral resolution NV NMR studies.
Abstract
Nitrogen-Vacancy (NV) center in diamond has been an emerging versatile tool for quantum sensing applications. Amongst various applications, nano-scale nuclear magnetic resonance (NMR) using a single or ensemble NV centers has demonstrated promising results, opening possibility of a single molecule NMR for its chemical structural studies or multi-nuclear spin spectroscopy for quantum information science. However, there is a key challenge, which limited the spectral resolution of NMR detection using NV centers; the interrogation duration for NV-NMR detection technique has been limited by the NV sensor spin lifetime (T1 ~ 3ms), which is orders of magnitude shorter than the coherence times of nuclear spins in bulk liquid samples (T2 ~ 1s) or intrinsic 13C nuclear spins in diamond. Recent studies have shown that quantum memory technique or synchronized readout detection technique can further narrow down the spectral linewidth of NMR signal. In this short review paper, we overview basic concepts of nanoscale NMR using NV centers, and introduce further developments in high spectral resolution NV NMR studies.
참고문헌 (30)
- J. M. Taylor, , Nat. Phys, 4, pp.810~ (2008)
- D. Le Sage, , Nature, 496, pp.486~ (2013)
- M. S. Grinolds, , Nat. Phys, 9, pp.215~ (2013)
- F. Dolde, , Nat. Phys, 7, pp.459~ (2011)
- Matthew J. Turner, , arXiv 03707, ~ (2020)
- S. Rajendran, , Phys. Rev. D, 96, pp.035009~ (2017)
- L. Robledo, , New J. Phys, 13, pp.025013~ (2011)
- L. Childress, , PhD, pp.2006
- 이현준, "Optically Detected Magnetic Resonance with Nitrogen-Vacancy Spin Ensemble in Diamond", Journal of the Korean Magnetic Resonance Society, 22(2), pp.40~45 (2018), 한국자기공명학회[DOI]
- L. P. Lee, , App. Phys. Lett, 59, pp.3051~ (1991)
- P. D. D. Schwindt, , App. Phys. Lett, 85, pp.6409~ (2004)
- J. F. Barry, , Rev. Mod. Phys, 92, pp.015004~ (2020)
- K. Arai, , Nat. Comm, 9, pp.4996~ (2018)
- K. Arai, , Nat. Nanotechnol, 10, pp.859~ (2015)
- S. Zaiser, , Nat. Comm, 7, pp.12279~ (2016)
- N. Aslam, , Science, 10, pp.1126~ (2017)
- D. R. Glenn, , Nature, 555, pp.351~ (2018)
- Sangwon Oh, "Mini-review on fabrication of nitrogen vacancy center in diamond and its application to NMR", Journal of the Korean Magnetic Resonance Society, 23(3), pp.73~80 (2019), 한국자기공명학회[DOI]
- S. Meiboom, , Rev. Sci. Instrum, 29, pp.688~ (1958)
- H. Y. Carr, , Phys. Rev, 94, pp.630~ (1954)
- J. Lee, , PhD, pp.2018
- L. M. Pham, , Phys. Rev. B, 93, pp.045425~ (2016)
- S. J. DeViencea, , Nat. Nanotechnol, 10, pp.129~ (2015)
- H. J. Mamin, , Science, 339, pp.557~ (2013)
- T. Staudacher, , Science, 339, pp.561~ (2013)
- S. M. Alessio, "Digital signal processing and spectral analysis for scientists: concepts and applications" (2016), Springer
- M. W. Doherty, , Phys. Rep, 528, pp.1~ (2013)
- P. Kehayias, , Nat. Comm, 8, pp.188~ (2017)
- D. B. Bucher, , Phys. Rev. X, 10, pp.021053~ (2020)
- A. W. Overhauser, "Polarization of Nuclei in Metals", Phys. Rev, 92, pp.411~ (1953)