Applied Magnetic Resonance, volume 53, issue 12, pages 1575-1585
Multinuclear MRI and MRS at 0.5 Tesla
Publication type: Journal Article
Publication date: 2022-08-26
Journal:
Applied Magnetic Resonance
Quartile SCImago
Q4
Quartile WOS
Q4
Impact factor: 1
ISSN: 09379347, 16137507
Atomic and Molecular Physics, and Optics
Abstract
This retrospective review presents the results of detecting MR signals (NMR spectra, NQR, and MR images) obtained on a clinical 0.5T MR scanner from nuclei other than protons (1H), namely isotopes 2H, 11B, 13C, 14N, 17O, 19F, 23Na, 35Cl, 29Si, and 31P. Also, we report here our latest developments in the field of 19F and 23Na MRI for medical, biological, and technological applications. The results were obtained without significant technical modifications of the MR scanner, with the addition of in-house built coils being the only change. Therefore, special attention in the article is paid to the technical aspects of the study. In this regard, we note the possibility to increase the effectiveness of multinuclear applications by adjusting frequency settings of the transceiver path, as in a typical clinical scanner they are optimized for the detection of only proton signals. The results of this work can be beneficial for the practical implementation of multinuclear applications at low field, have methodological value, and serve as a guidance (starting point) for research carried out on more advanced high-field equipment.
Citations by journals
|
1
|
|
|
Applied Magnetic Resonance
|
Applied Magnetic Resonance
1 publication, 100%
|
|
1
|
Citations by publishers
|
1
|
|
|
Springer Nature
|
Springer Nature
1 publication, 100%
|
|
1
|
- We do not take into account publications that without a DOI.
- Statistics recalculated only for publications connected to researchers, organizations and labs registered on the platform.
- Statistics recalculated weekly.
{"yearsCitations":{"type":"bar","data":{"show":true,"labels":[2023],"ids":[0],"codes":[0],"imageUrls":[""],"datasets":[{"label":"Citations number","data":[1],"backgroundColor":["#3B82F6"],"percentage":["100"],"barThickness":null}]},"options":{"indexAxis":"x","maintainAspectRatio":true,"scales":{"y":{"ticks":{"precision":0,"autoSkip":false,"font":{"family":"Montserrat"},"color":"#000000"}},"x":{"ticks":{"stepSize":1,"precision":0,"font":{"family":"Montserrat"},"color":"#000000"}}},"plugins":{"legend":{"position":"top","labels":{"font":{"family":"Montserrat"},"color":"#000000"}},"title":{"display":true,"text":"Citations per year","font":{"size":24,"family":"Montserrat","weight":600},"color":"#000000"}}}},"journals":{"type":"bar","data":{"show":true,"labels":["Applied Magnetic Resonance"],"ids":[22807],"codes":[0],"imageUrls":["\/storage\/images\/resized\/voXLqlsvTwv5p3iMQ8Dhs95nqB4AXOG7Taj7G4ra_medium.webp"],"datasets":[{"label":"","data":[1],"backgroundColor":["#3B82F6"],"percentage":[100],"barThickness":13}]},"options":{"indexAxis":"y","maintainAspectRatio":false,"scales":{"y":{"ticks":{"precision":0,"autoSkip":false,"font":{"family":"Montserrat"},"color":"#000000"}},"x":{"ticks":{"stepSize":null,"precision":0,"font":{"family":"Montserrat"},"color":"#000000"}}},"plugins":{"legend":{"position":"top","labels":{"font":{"family":"Montserrat"},"color":"#000000"}},"title":{"display":true,"text":"Journals","font":{"size":24,"family":"Montserrat","weight":600},"color":"#000000"}}}},"publishers":{"type":"bar","data":{"show":true,"labels":["Springer Nature"],"ids":[8],"codes":[0],"imageUrls":["\/storage\/images\/resized\/voXLqlsvTwv5p3iMQ8Dhs95nqB4AXOG7Taj7G4ra_medium.webp"],"datasets":[{"label":"","data":[1],"backgroundColor":["#3B82F6"],"percentage":[100],"barThickness":13}]},"options":{"indexAxis":"y","maintainAspectRatio":false,"scales":{"y":{"ticks":{"precision":0,"autoSkip":false,"font":{"family":"Montserrat"},"color":"#000000"}},"x":{"ticks":{"stepSize":null,"precision":0,"font":{"family":"Montserrat"},"color":"#000000"}}},"plugins":{"legend":{"position":"top","labels":{"font":{"family":"Montserrat"},"color":"#000000"}},"title":{"display":true,"text":"Publishers","font":{"size":24,"family":"Montserrat","weight":600},"color":"#000000"}}}}}
Metrics
Cite this
GOST |
RIS |
BibTex |
MLA
Cite this
GOST
Copy
Anisimov N. V. et al. Multinuclear MRI and MRS at 0.5 Tesla // Applied Magnetic Resonance. 2022. Vol. 53. No. 12. pp. 1575-1585.
GOST all authors (up to 50)
Copy
Anisimov N. V., Pavlova O. S., Tarasova A. A., Usanov I. A., Gulyaev M. V., Pirogov Y. A. Multinuclear MRI and MRS at 0.5 Tesla // Applied Magnetic Resonance. 2022. Vol. 53. No. 12. pp. 1575-1585.
Cite this
RIS
Copy
TY - JOUR
DO - 10.1007/s00723-022-01489-5
UR - https://doi.org/10.1007%2Fs00723-022-01489-5
TI - Multinuclear MRI and MRS at 0.5 Tesla
T2 - Applied Magnetic Resonance
AU - Anisimov, Nikolay V
AU - Pavlova, Olga S
AU - Tarasova, Arina A
AU - Gulyaev, Mikhail V
AU - Usanov, Ivan A
AU - Pirogov, Yury A.
PY - 2022
DA - 2022/08/26 00:00:00
PB - Springer Nature
SP - 1575-1585
IS - 12
VL - 53
SN - 0937-9347
SN - 1613-7507
ER -
Cite this
BibTex
Copy
@article{2022_Anisimov,
author = {Nikolay V Anisimov and Olga S Pavlova and Arina A Tarasova and Mikhail V Gulyaev and Ivan A Usanov and Yury A. Pirogov},
title = {Multinuclear MRI and MRS at 0.5 Tesla},
journal = {Applied Magnetic Resonance},
year = {2022},
volume = {53},
publisher = {Springer Nature},
month = {aug},
url = {https://doi.org/10.1007%2Fs00723-022-01489-5},
number = {12},
pages = {1575--1585},
doi = {10.1007/s00723-022-01489-5}
}
Cite this
MLA
Copy
Anisimov, Nikolay V., et al. “Multinuclear MRI and MRS at 0.5 Tesla.” Applied Magnetic Resonance, vol. 53, no. 12, Aug. 2022, pp. 1575-1585. https://doi.org/10.1007%2Fs00723-022-01489-5.