Standard

NMR methods applied to anisotropic diffusion. / Furó, István; Dvinskikh, Sergey V.

в: Magnetic Resonance in Chemistry, Том 40, № SPEC. ISS., 01.12.2002, стр. S3-S14.

Результаты исследований: Научные публикации в периодических изданиях › Обзорная статья › Рецензирование

Harvard

Furó, I & Dvinskikh, SV 2002, 'NMR methods applied to anisotropic diffusion', Magnetic Resonance in Chemistry, Том. 40, № SPEC. ISS., стр. S3-S14. https://doi.org/10.1002/mrc.1123

APA

Furó, I., & Dvinskikh, S. V. (2002). NMR methods applied to anisotropic diffusion. Magnetic Resonance in Chemistry, 40(SPEC. ISS.), S3-S14. https://doi.org/10.1002/mrc.1123

Vancouver

Furó I, Dvinskikh SV. NMR methods applied to anisotropic diffusion. Magnetic Resonance in Chemistry. 2002 Дек. 1;40(SPEC. ISS.):S3-S14. https://doi.org/10.1002/mrc.1123

Author

Furó, István ; Dvinskikh, Sergey V. / NMR methods applied to anisotropic diffusion. в: Magnetic Resonance in Chemistry. 2002 ; Том 40, № SPEC. ISS. стр. S3-S14.

BibTeX

@article{c25d0c0a9cb04ac8913c52d5bf37f69e,
title = "NMR methods applied to anisotropic diffusion",
abstract = "The methodology of NMR experiments intended to measure anisotropic diffusion is reviewed. Experiments of this kind preferably require oriented samples and/or orientation-dependent spin coupling and/or magnetic field gradients in different directions. One strategy of diffusion experiments in anisotropic systems with broad NMR lines employs line narrowing techniques, thereby allowing for efficient gradient encoding/decoding. Depending on the nuclei, spin couplings and samples, the preferred methods vary from decoupling through echo techniques to magic angle sample orientation and spinning. Another avenue to efficient gradient encoding/decoding is through very strong magnetic field gradients. Either way, anisotropic diffusion reveals new structural features as illustrated by a few selected examples in liquid crystals and in biological tissues.",
keywords = "Activation energy, Alignment, Diffusion tensor magnetic resonance imaging, Lipid, Lyotropic liquid crystal, Magic echo, NMR, Obstruction, Orientation, Restricted diffusion, Self-diffusion, Spin decoupling, Surfactant, Thermotropic liquid crystal, Zeolite",
author = "Istv{\'a}n Fur{\'o} and Dvinskikh, {Sergey V.}",
year = "2002",
month = dec,
day = "1",
doi = "10.1002/mrc.1123",
language = "English",
volume = "40",
pages = "S3--S14",
journal = "Magnetic Resonance in Chemistry",
issn = "0749-1581",
publisher = "Wiley-Blackwell",
number = "SPEC. ISS.",

}

RIS

TY - JOUR

T1 - NMR methods applied to anisotropic diffusion

AU - Furó, István

AU - Dvinskikh, Sergey V.

PY - 2002/12/1

Y1 - 2002/12/1

N2 - The methodology of NMR experiments intended to measure anisotropic diffusion is reviewed. Experiments of this kind preferably require oriented samples and/or orientation-dependent spin coupling and/or magnetic field gradients in different directions. One strategy of diffusion experiments in anisotropic systems with broad NMR lines employs line narrowing techniques, thereby allowing for efficient gradient encoding/decoding. Depending on the nuclei, spin couplings and samples, the preferred methods vary from decoupling through echo techniques to magic angle sample orientation and spinning. Another avenue to efficient gradient encoding/decoding is through very strong magnetic field gradients. Either way, anisotropic diffusion reveals new structural features as illustrated by a few selected examples in liquid crystals and in biological tissues.

AB - The methodology of NMR experiments intended to measure anisotropic diffusion is reviewed. Experiments of this kind preferably require oriented samples and/or orientation-dependent spin coupling and/or magnetic field gradients in different directions. One strategy of diffusion experiments in anisotropic systems with broad NMR lines employs line narrowing techniques, thereby allowing for efficient gradient encoding/decoding. Depending on the nuclei, spin couplings and samples, the preferred methods vary from decoupling through echo techniques to magic angle sample orientation and spinning. Another avenue to efficient gradient encoding/decoding is through very strong magnetic field gradients. Either way, anisotropic diffusion reveals new structural features as illustrated by a few selected examples in liquid crystals and in biological tissues.

KW - Activation energy

KW - Alignment

KW - Diffusion tensor magnetic resonance imaging

KW - Lipid

KW - Lyotropic liquid crystal

KW - Magic echo

KW - NMR

KW - Obstruction

KW - Orientation

KW - Restricted diffusion

KW - Self-diffusion

KW - Spin decoupling

KW - Surfactant

KW - Thermotropic liquid crystal

KW - Zeolite

UR - http://www.scopus.com/inward/record.url?scp=0036441374&partnerID=8YFLogxK

U2 - 10.1002/mrc.1123

DO - 10.1002/mrc.1123

M3 - Review article

AN - SCOPUS:0036441374

VL - 40

SP - S3-S14

JO - Magnetic Resonance in Chemistry

JF - Magnetic Resonance in Chemistry

SN - 0749-1581

IS - SPEC. ISS.

ER -

ID: 48945477