Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.

Understanding the critical features of the human brain at multiple time scales is vital for both normal development and disease research. A recently proposed method, the vertex-wise Index of Functional Criticality (vIFC) based on fMRI, has been testified as a sensitive neuroimaging marker to charact...

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Main Authors: Lili Jiang, Kaini Qiao, Danyang Sui, Zhe Zhang, Hao-Ming Dong
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2019-01-01
Series:PLoS ONE
Online Access:https://doi.org/10.1371/journal.pone.0213690
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spelling doaj-8347757a115f40acae6506338095b7bb2021-03-03T20:49:47ZengPublic Library of Science (PLoS)PLoS ONE1932-62032019-01-01143e021369010.1371/journal.pone.0213690Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.Lili JiangKaini QiaoDanyang SuiZhe ZhangHao-Ming DongUnderstanding the critical features of the human brain at multiple time scales is vital for both normal development and disease research. A recently proposed method, the vertex-wise Index of Functional Criticality (vIFC) based on fMRI, has been testified as a sensitive neuroimaging marker to characterize critical transitions of human brain dynamics during Alzheimer's disease progression. However, it remains unclear whether vIFC in healthy brains is associated with neuropsychological and neurophysiological measurements. Using the Nathan Kline Institute/Rockland lifespan cross-sectional datasets and openfMRI single participant longitudinal datasets, we found consistent spatial patterns of vIFC across the entire cortical mantle: the inferior parietal and the precuneus exhibited high vIFC. On a time scale of years, we observed that vIFC increased with age in the left ventral posterior cingulate gyrus. On a time scale of days and weeks, vIFC demonstrated the capacity to identify a link between anxiety and pulse. These results showed that vIFC can serve as a useful neuroimaging marker for detecting physiological, behavioral, and neurodevelopmental transitions. Based on the criticality theory in nonlinear dynamics, the current vIFC study sheds new light on human brain studies from a nonlinear perspective and opens potential new avenues for normal and abnormal human brain studies.https://doi.org/10.1371/journal.pone.0213690
collection DOAJ
language English
format Article
sources DOAJ
author Lili Jiang
Kaini Qiao
Danyang Sui
Zhe Zhang
Hao-Ming Dong
spellingShingle Lili Jiang
Kaini Qiao
Danyang Sui
Zhe Zhang
Hao-Ming Dong
Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.
PLoS ONE
author_facet Lili Jiang
Kaini Qiao
Danyang Sui
Zhe Zhang
Hao-Ming Dong
author_sort Lili Jiang
title Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.
title_short Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.
title_full Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.
title_fullStr Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.
title_full_unstemmed Functional criticality in the human brain: Physiological, behavioral and neurodevelopmental correlates.
title_sort functional criticality in the human brain: physiological, behavioral and neurodevelopmental correlates.
publisher Public Library of Science (PLoS)
series PLoS ONE
issn 1932-6203
publishDate 2019-01-01
description Understanding the critical features of the human brain at multiple time scales is vital for both normal development and disease research. A recently proposed method, the vertex-wise Index of Functional Criticality (vIFC) based on fMRI, has been testified as a sensitive neuroimaging marker to characterize critical transitions of human brain dynamics during Alzheimer's disease progression. However, it remains unclear whether vIFC in healthy brains is associated with neuropsychological and neurophysiological measurements. Using the Nathan Kline Institute/Rockland lifespan cross-sectional datasets and openfMRI single participant longitudinal datasets, we found consistent spatial patterns of vIFC across the entire cortical mantle: the inferior parietal and the precuneus exhibited high vIFC. On a time scale of years, we observed that vIFC increased with age in the left ventral posterior cingulate gyrus. On a time scale of days and weeks, vIFC demonstrated the capacity to identify a link between anxiety and pulse. These results showed that vIFC can serve as a useful neuroimaging marker for detecting physiological, behavioral, and neurodevelopmental transitions. Based on the criticality theory in nonlinear dynamics, the current vIFC study sheds new light on human brain studies from a nonlinear perspective and opens potential new avenues for normal and abnormal human brain studies.
url https://doi.org/10.1371/journal.pone.0213690
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