Literature DB >> 26058461

Quantitative sodium MRI of the human brain at 9.4 T provides assessment of tissue sodium concentration and cell volume fraction during normal aging.

Keith Thulborn1, Elaine Lui2, Jonathan Guntin1, Saad Jamil1, Ziqi Sun1, Theodore C Claiborne1, Ian C Atkinson1.   

Abstract

Sodium ion homeostasis is a fundamental property of viable tissue, allowing the tissue sodium concentration to be modeled as the tissue cell volume fraction. The modern neuropathology literature using ex vivo tissue from selected brain regions indicates that human brain cell density remains constant during normal aging and attributes the volume loss that occurs with advancing age to changes in neuronal size and dendritic arborization. Quantitative sodium MRI performed with the enhanced sensitivity of ultrahigh-field 9.4 T has been used to investigate tissue cell volume fraction during normal aging. This cross-sectional study (n = 49; 21-80 years) finds that the in vivo tissue cell volume fraction remains constant in all regions of the brain with advancing age in individuals who remain cognitively normal, extending the ex vivo literature reporting constant neuronal cell density across the normal adult age range. Cell volume fraction, as measured by quantitative sodium MRI, is decreased in diseases of cell loss, such as stroke, on a time scale of minutes to hours, and in response to treatment of brain tumors on a time scale of days to weeks. Neurodegenerative diseases often have prodromal periods of decades in which regional neuronal cell loss occurs prior to clinical presentation. If tissue cell volume fraction can detect such early pathology, this quantitative parameter may permit the objective measurement of preclinical disease progression. This current study in cognitively normal aging individuals provides the basis for the pursuance of investigations directed towards such neurodegenerative diseases.
Copyright © 2015 John Wiley & Sons, Ltd.

Entities:  

Keywords:  MRI; ageing; brain; cognition; human; normal; quantitative; sodium

Mesh:

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Year:  2015        PMID: 26058461      PMCID: PMC4674376          DOI: 10.1002/nbm.3312

Source DB:  PubMed          Journal:  NMR Biomed        ISSN: 0952-3480            Impact factor:   4.044


  34 in total

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4.  High-resolution quantitative sodium imaging at 9.4 Tesla.

Authors:  Christian C Mirkes; Jens Hoffmann; G Shajan; Rolf Pohmann; Klaus Scheffler
Journal:  Magn Reson Med       Date:  2014-01-16       Impact factor: 4.668

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Authors:  K R Thulborn; T S Gindin; D Davis; P Erb
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Authors:  Ian C Atkinson; Aiming Lu; Keith R Thulborn
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7.  Neocortical cell counts in normal human adult aging.

Authors:  R D Terry; R DeTeresa; L A Hansen
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8.  Regionally specific loss of neurons in the aging human hippocampus.

Authors:  M J West
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Authors:  Feng Shi; Bing Liu; Yuan Zhou; Chunshui Yu; Tianzi Jiang
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10.  The human brain in numbers: a linearly scaled-up primate brain.

Authors:  Suzana Herculano-Houzel
Journal:  Front Hum Neurosci       Date:  2009-11-09       Impact factor: 3.169

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  16 in total

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2.  Electrodynamics and radiofrequency antenna concepts for human magnetic resonance at 23.5 T (1 GHz) and beyond.

Authors:  Lukas Winter; Thoralf Niendorf
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Review 3.  Quantitative sodium MR imaging: A review of its evolving role in medicine.

Authors:  Keith R Thulborn
Journal:  Neuroimage       Date:  2016-11-24       Impact factor: 6.556

4.  Multipulse sodium magnetic resonance imaging for multicompartment quantification: Proof-of-concept.

Authors:  Alina Gilles; Armin M Nagel; Guillaume Madelin
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5.  An eight-channel sodium/proton coil for brain MRI at 3 T.

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6.  Cerebral sodium (23Na) magnetic resonance imaging in patients with migraine - a case-control study.

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Review 8.  Toward 20 T magnetic resonance for human brain studies: opportunities for discovery and neuroscience rationale.

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9.  SERIAL transmit - parallel receive (STxPRx) MR imaging produces acceptable proton image uniformity without compromising field of view or SAR guidelines for human neuroimaging at 9.4 Tesla.

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Review 10.  Visualizing the Human Subcortex Using Ultra-high Field Magnetic Resonance Imaging.

Authors:  M C Keuken; B R Isaacs; R Trampel; W van der Zwaag; B U Forstmann
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