Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study

The multiband EPI sequence has been developed for the human connectome project to accelerate MRI data acquisition. However, no study has yet investigated the test-retest (TRT) reliability of the graph metrics of white matter (WM) structural brain networks constructed from this new sequence. Here, we...

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Main Authors: Tengda eZhao, Fei eDuan, Xuhong eLiao, Zhengjia eDai, Miao eCao, Yong eHe, Ni eShu
Format: Article
Language:English
Published: Frontiers Media S.A. 2015-02-01
Series:Frontiers in Human Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fnhum.2015.00059/full
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spelling doaj-e17c58607b9d49469cdfb8a6278265522020-11-25T03:22:51ZengFrontiers Media S.A.Frontiers in Human Neuroscience1662-51612015-02-01910.3389/fnhum.2015.00059120273Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI studyTengda eZhao0Fei eDuan1Xuhong eLiao2Zhengjia eDai3Miao eCao4Yong eHe5Ni eShu6Beijing Normal UniversityBeijing Normal UniversityBeijing Normal UniversityBeijing Normal UniversityBeijing Normal UniversityBeijing Normal UniversityBeijing Normal UniversityThe multiband EPI sequence has been developed for the human connectome project to accelerate MRI data acquisition. However, no study has yet investigated the test-retest (TRT) reliability of the graph metrics of white matter (WM) structural brain networks constructed from this new sequence. Here, we employed a multiband diffusion MRI (dMRI) dataset with repeated scanning sessions and constructed both low- and high-resolution WM networks by volume- and surface-based parcellation methods. The reproducibility of network metrics and its dependence on type of construction procedures was assessed by the intra-class correlation coefficient (ICC). We observed conserved topological architecture of WM structural networks constructed from the multiband dMRI data as previous findings from conventional dMRI. For the global network properties, the first order metrics were more reliable than second order metrics. Between two parcellation methods, networks with volume-based parcellation showed better reliability than surface-based parcellation, especially for the global metrics. Between different resolutions, the high-resolution network exhibited higher TRT performance than the low-resolution in terms of the global metrics with a large effect size, whereas the low-resolution performs better in terms of local (region and connection) properties with a relatively low effect size. Moreover, we identified that the association and primary cortices showed higher reproducibility than the paralimbic/limbic regions. The important hub regions and rich-club connections are more reliable than the non-hub regions and connections. Finally, we found WM networks from the multiband dMRI showed higher reproducibility compared with those from the conventional dMRI. Together, our results demonstrated the fair to good reliability of the WM structural brain networks from the multiband EPI sequence, suggesting its potential utility for exploring individual differences and for clinical applications.http://journal.frontiersin.org/Journal/10.3389/fnhum.2015.00059/fullDiffusion Tensor Imagingtractographywhite mattergraph theoryreproducibilitymultiband epi
collection DOAJ
language English
format Article
sources DOAJ
author Tengda eZhao
Fei eDuan
Xuhong eLiao
Zhengjia eDai
Miao eCao
Yong eHe
Ni eShu
spellingShingle Tengda eZhao
Fei eDuan
Xuhong eLiao
Zhengjia eDai
Miao eCao
Yong eHe
Ni eShu
Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study
Frontiers in Human Neuroscience
Diffusion Tensor Imaging
tractography
white matter
graph theory
reproducibility
multiband epi
author_facet Tengda eZhao
Fei eDuan
Xuhong eLiao
Zhengjia eDai
Miao eCao
Yong eHe
Ni eShu
author_sort Tengda eZhao
title Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study
title_short Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study
title_full Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study
title_fullStr Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study
title_full_unstemmed Test-retest reliability of white matter structural brain networks: A multiband diffusion MRI study
title_sort test-retest reliability of white matter structural brain networks: a multiband diffusion mri study
publisher Frontiers Media S.A.
series Frontiers in Human Neuroscience
issn 1662-5161
publishDate 2015-02-01
description The multiband EPI sequence has been developed for the human connectome project to accelerate MRI data acquisition. However, no study has yet investigated the test-retest (TRT) reliability of the graph metrics of white matter (WM) structural brain networks constructed from this new sequence. Here, we employed a multiband diffusion MRI (dMRI) dataset with repeated scanning sessions and constructed both low- and high-resolution WM networks by volume- and surface-based parcellation methods. The reproducibility of network metrics and its dependence on type of construction procedures was assessed by the intra-class correlation coefficient (ICC). We observed conserved topological architecture of WM structural networks constructed from the multiband dMRI data as previous findings from conventional dMRI. For the global network properties, the first order metrics were more reliable than second order metrics. Between two parcellation methods, networks with volume-based parcellation showed better reliability than surface-based parcellation, especially for the global metrics. Between different resolutions, the high-resolution network exhibited higher TRT performance than the low-resolution in terms of the global metrics with a large effect size, whereas the low-resolution performs better in terms of local (region and connection) properties with a relatively low effect size. Moreover, we identified that the association and primary cortices showed higher reproducibility than the paralimbic/limbic regions. The important hub regions and rich-club connections are more reliable than the non-hub regions and connections. Finally, we found WM networks from the multiband dMRI showed higher reproducibility compared with those from the conventional dMRI. Together, our results demonstrated the fair to good reliability of the WM structural brain networks from the multiband EPI sequence, suggesting its potential utility for exploring individual differences and for clinical applications.
topic Diffusion Tensor Imaging
tractography
white matter
graph theory
reproducibility
multiband epi
url http://journal.frontiersin.org/Journal/10.3389/fnhum.2015.00059/full
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