Prediction of biological motion perception performance from intrinsic brain network regional efficiency

Biological motion perception (BMP) is a vivid perception of the moving form of a human figure from a few light points on the joints of the body. BMP is commonplace and important, but there is great inter-individual variability in this ability. This study used multiple regression model analysis to ex...

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Main Authors: Zengjian Wang, Delong Zhang, Bishan Liang, Song Chang, Jinghua Pan, Ruiwang Huang, Ming Liu
Format: Article
Language:English
Published: Frontiers Media S.A. 2016-11-01
Series:Frontiers in Human Neuroscience
Subjects:
Online Access:http://journal.frontiersin.org/Journal/10.3389/fnhum.2016.00552/full
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spelling doaj-a358885a9d1245b989b8c3e2ed1520e42020-11-25T03:00:40ZengFrontiers Media S.A.Frontiers in Human Neuroscience1662-51612016-11-011010.3389/fnhum.2016.00552180943Prediction of biological motion perception performance from intrinsic brain network regional efficiencyZengjian Wang0Delong Zhang1Bishan Liang2Song Chang3Jinghua Pan4Ruiwang Huang5Ming Liu6South China Normal UniversitySouth China Normal UniversitySouth China Normal UniversitySouth China Normal UniversitySouth China Normal UniversitySouth China Normal UniversitySouth China Normal UniversityBiological motion perception (BMP) is a vivid perception of the moving form of a human figure from a few light points on the joints of the body. BMP is commonplace and important, but there is great inter-individual variability in this ability. This study used multiple regression model analysis to explore the association between the BMP performance and intrinsic brain activity, in order to investigate the neural substrates underlying inter-individual variability of BMP performance. The resting-state functional magnetic resonance imaging (rs-fMRI) and BMP performance data were collected from 24 healthy participants. For each participant, the intrinsic brain network was constructed, and a graph-based network efficiency metric was measured. Then, a multiple linear regression model was used to explore the association between network regional efficiency and BMP performance. We found that the local and global network efficiency of many regions was significantly correlated with the BMP performance. Further analysis showed that the local efficiency rather than global efficiency could be used to explain most of the BMP inter-individual variability, and the regions involved were predominately located at the Default Mode Network (DMN). Additionally, the discrimination analysis showed that the local efficiency over regions including thalamus could be used to classify BMP performance across participants. Notably, the association pattern between the network nodal efficiency and the BMP was different from the association pattern that of the static directional/gender information perception. Overall, these findings showed that intrinsic brain network efficiency may be considered as a neural factor that explains BMP inter-individual variability. Keywords: Biological motion; Resting-state network; Network efficiency; Multiple linear regression model; Brain-behavior analysishttp://journal.frontiersin.org/Journal/10.3389/fnhum.2016.00552/fullBiological motionresting-state networkMultiple linear regression modelBrain-behavior analysisNetwork effciency
collection DOAJ
language English
format Article
sources DOAJ
author Zengjian Wang
Delong Zhang
Bishan Liang
Song Chang
Jinghua Pan
Ruiwang Huang
Ming Liu
spellingShingle Zengjian Wang
Delong Zhang
Bishan Liang
Song Chang
Jinghua Pan
Ruiwang Huang
Ming Liu
Prediction of biological motion perception performance from intrinsic brain network regional efficiency
Frontiers in Human Neuroscience
Biological motion
resting-state network
Multiple linear regression model
Brain-behavior analysis
Network effciency
author_facet Zengjian Wang
Delong Zhang
Bishan Liang
Song Chang
Jinghua Pan
Ruiwang Huang
Ming Liu
author_sort Zengjian Wang
title Prediction of biological motion perception performance from intrinsic brain network regional efficiency
title_short Prediction of biological motion perception performance from intrinsic brain network regional efficiency
title_full Prediction of biological motion perception performance from intrinsic brain network regional efficiency
title_fullStr Prediction of biological motion perception performance from intrinsic brain network regional efficiency
title_full_unstemmed Prediction of biological motion perception performance from intrinsic brain network regional efficiency
title_sort prediction of biological motion perception performance from intrinsic brain network regional efficiency
publisher Frontiers Media S.A.
series Frontiers in Human Neuroscience
issn 1662-5161
publishDate 2016-11-01
description Biological motion perception (BMP) is a vivid perception of the moving form of a human figure from a few light points on the joints of the body. BMP is commonplace and important, but there is great inter-individual variability in this ability. This study used multiple regression model analysis to explore the association between the BMP performance and intrinsic brain activity, in order to investigate the neural substrates underlying inter-individual variability of BMP performance. The resting-state functional magnetic resonance imaging (rs-fMRI) and BMP performance data were collected from 24 healthy participants. For each participant, the intrinsic brain network was constructed, and a graph-based network efficiency metric was measured. Then, a multiple linear regression model was used to explore the association between network regional efficiency and BMP performance. We found that the local and global network efficiency of many regions was significantly correlated with the BMP performance. Further analysis showed that the local efficiency rather than global efficiency could be used to explain most of the BMP inter-individual variability, and the regions involved were predominately located at the Default Mode Network (DMN). Additionally, the discrimination analysis showed that the local efficiency over regions including thalamus could be used to classify BMP performance across participants. Notably, the association pattern between the network nodal efficiency and the BMP was different from the association pattern that of the static directional/gender information perception. Overall, these findings showed that intrinsic brain network efficiency may be considered as a neural factor that explains BMP inter-individual variability. Keywords: Biological motion; Resting-state network; Network efficiency; Multiple linear regression model; Brain-behavior analysis
topic Biological motion
resting-state network
Multiple linear regression model
Brain-behavior analysis
Network effciency
url http://journal.frontiersin.org/Journal/10.3389/fnhum.2016.00552/full
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