13 C hyperpolarization with nitrogen-vacancy centers in micro- and nanodiamonds for sensitive magnetic resonance applications

Nuclear hyperpolarization is a known method to enhance the signal in nuclear magnetic resonance (NMR) by orders of magnitude. The present work addresses the 13 C hyperpolarization in diamond micro- and nanoparticles, using the optically pumped nitrogen-vacancy center (NV) to polarize 13 C spins at r...

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Vydáno v:Science advances Ročník 11; číslo 9; s. eadq6836
Hlavní autoři: Blinder, Rémi, Mindarava, Yuliya, Korzeczek, Martin, Marshall, Alastair, Glöckler, Felix, Nothelfer, Steffen, Kienle, Alwin, Laube, Christian, Knolle, Wolfgang, Jentgens, Christian, Plenio, Martin B., Jelezko, Fedor
Médium: Journal Article
Jazyk:angličtina
Vydáno: United States 28.02.2025
ISSN:2375-2548, 2375-2548
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Abstract Nuclear hyperpolarization is a known method to enhance the signal in nuclear magnetic resonance (NMR) by orders of magnitude. The present work addresses the 13 C hyperpolarization in diamond micro- and nanoparticles, using the optically pumped nitrogen-vacancy center (NV) to polarize 13 C spins at room temperature. Consequences of the small particle size are mitigated by using a combination of surface treatment improving the 13 C relaxation ( T 1 ) time, as well as that of NV, and applying a technique for NV illumination based on a microphotonic structure. Adjustments to the dynamical nuclear polarization sequence (PulsePol) are performed, as well as slow sample rotation, to improve the NV- 13 C polarization transfer rate. The hyperpolarized 13 C NMR signal is observed in particles of 2-micrometer and 100-nanometer median sizes, with enhancements over the thermal signal (at 0.29-tesla magnetic field) of 1500 and 940, respectively. The present demonstration of room-temperature hyperpolarization anticipates the development of agents based on nanoparticles for sensitive magnetic resonance applications. Nuclear hyperpolarization of 13 C spins is performed at ambient conditions in micro- and nanodiamonds.
AbstractList Nuclear hyperpolarization is a known method to enhance the signal in nuclear magnetic resonance (NMR) by orders of magnitude. The present work addresses the 13 C hyperpolarization in diamond micro- and nanoparticles, using the optically pumped nitrogen-vacancy center (NV) to polarize 13 C spins at room temperature. Consequences of the small particle size are mitigated by using a combination of surface treatment improving the 13 C relaxation ( T 1 ) time, as well as that of NV, and applying a technique for NV illumination based on a microphotonic structure. Adjustments to the dynamical nuclear polarization sequence (PulsePol) are performed, as well as slow sample rotation, to improve the NV- 13 C polarization transfer rate. The hyperpolarized 13 C NMR signal is observed in particles of 2-micrometer and 100-nanometer median sizes, with enhancements over the thermal signal (at 0.29-tesla magnetic field) of 1500 and 940, respectively. The present demonstration of room-temperature hyperpolarization anticipates the development of agents based on nanoparticles for sensitive magnetic resonance applications. Nuclear hyperpolarization of 13 C spins is performed at ambient conditions in micro- and nanodiamonds.
Nuclear hyperpolarization is a known method to enhance the signal in nuclear magnetic resonance (NMR) by orders of magnitude. The present work addresses the C hyperpolarization in diamond micro- and nanoparticles, using the optically pumped nitrogen-vacancy center (NV) to polarize C spins at room temperature. Consequences of the small particle size are mitigated by using a combination of surface treatment improving the C relaxation ( ) time, as well as that of NV, and applying a technique for NV illumination based on a microphotonic structure. Adjustments to the dynamical nuclear polarization sequence (PulsePol) are performed, as well as slow sample rotation, to improve the NV- C polarization transfer rate. The hyperpolarized C NMR signal is observed in particles of 2-micrometer and 100-nanometer median sizes, with enhancements over the thermal signal (at 0.29-tesla magnetic field) of 1500 and 940, respectively. The present demonstration of room-temperature hyperpolarization anticipates the development of agents based on nanoparticles for sensitive magnetic resonance applications.
Author Nothelfer, Steffen
Knolle, Wolfgang
Jentgens, Christian
Jelezko, Fedor
Plenio, Martin B.
Blinder, Rémi
Korzeczek, Martin
Laube, Christian
Mindarava, Yuliya
Marshall, Alastair
Glöckler, Felix
Kienle, Alwin
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  givenname: Christian
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  givenname: Wolfgang
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  surname: Jentgens
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  surname: Plenio
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  surname: Jelezko
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  organization: Institute for Quantum Optics, Albert-Einstein Allee 11, Ulm University, 89081 Ulm, Germany., Centre for Integrated Quantum Science and Technology (IQST), 89081 Ulm, Germany
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  doi: 10.1103/PhysRevLett.112.147602
– ident: e_1_3_2_31_2
  doi: 10.1021/acs.jpcc.9b04110
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Snippet Nuclear hyperpolarization is a known method to enhance the signal in nuclear magnetic resonance (NMR) by orders of magnitude. The present work addresses the 13...
Nuclear hyperpolarization is a known method to enhance the signal in nuclear magnetic resonance (NMR) by orders of magnitude. The present work addresses the C...
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Title 13 C hyperpolarization with nitrogen-vacancy centers in micro- and nanodiamonds for sensitive magnetic resonance applications
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