Core language brain network for fMRI language task used in clinical applications

Functional magnetic resonance imaging (fMRI) is widely used in clinical applications to highlight brain areas involved in specific cognitive processes. Brain impairments, such as tumors, suppress the fMRI activation of the anatomical areas they invade and, thus, brain-damaged f...

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Main Authors: Li, Qiongge, Ferraro, Gino Del, Pasquini, Luca, Peck, Kyung K., Makse, Hernán A., Holodny, Andrei I.
Format: Article
Language:English
Published: The MIT Press 2020-01-01
Series:Network Neuroscience
Online Access:https://www.mitpressjournals.org/doi/abs/10.1162/netn_a_00112
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spelling doaj-c70fe4fa64c241dfb9bb886808ebdccb2020-11-25T02:00:22ZengThe MIT PressNetwork Neuroscience2472-17512020-01-014113415410.1162/netn_a_00112Core language brain network for fMRI language task used in clinical applicationsLi, QionggeFerraro, Gino DelPasquini, LucaPeck, Kyung K.Makse, Hernán A.Holodny, Andrei I. Functional magnetic resonance imaging (fMRI) is widely used in clinical applications to highlight brain areas involved in specific cognitive processes. Brain impairments, such as tumors, suppress the fMRI activation of the anatomical areas they invade and, thus, brain-damaged functional networks present missing links/areas of activation. The identification of the missing circuitry components is of crucial importance to estimate the damage extent. The study of functional networks associated with clinical tasks but performed by healthy individuals becomes, therefore, of paramount concern. These “healthy” networks can, indeed, be used as control networks for clinical studies. In this work we investigate the functional architecture of 20 healthy individuals performing a language task designed for clinical purposes. We unveil a common architecture persistent across all subjects under study, that we call “core” network, which involves Broca’s area, Wernicke’s area, the premotor area, and the pre-supplementary motor area. We study the connectivity of this circuitry by using the k-core centrality measure, and we find that three of these areas belong to the most robust structure of the functional language network for the specific task under study. Our results provide useful insights on primarily important functional connections. https://www.mitpressjournals.org/doi/abs/10.1162/netn_a_00112
collection DOAJ
language English
format Article
sources DOAJ
author Li, Qiongge
Ferraro, Gino Del
Pasquini, Luca
Peck, Kyung K.
Makse, Hernán A.
Holodny, Andrei I.
spellingShingle Li, Qiongge
Ferraro, Gino Del
Pasquini, Luca
Peck, Kyung K.
Makse, Hernán A.
Holodny, Andrei I.
Core language brain network for fMRI language task used in clinical applications
Network Neuroscience
author_facet Li, Qiongge
Ferraro, Gino Del
Pasquini, Luca
Peck, Kyung K.
Makse, Hernán A.
Holodny, Andrei I.
author_sort Li, Qiongge
title Core language brain network for fMRI language task used in clinical applications
title_short Core language brain network for fMRI language task used in clinical applications
title_full Core language brain network for fMRI language task used in clinical applications
title_fullStr Core language brain network for fMRI language task used in clinical applications
title_full_unstemmed Core language brain network for fMRI language task used in clinical applications
title_sort core language brain network for fmri language task used in clinical applications
publisher The MIT Press
series Network Neuroscience
issn 2472-1751
publishDate 2020-01-01
description Functional magnetic resonance imaging (fMRI) is widely used in clinical applications to highlight brain areas involved in specific cognitive processes. Brain impairments, such as tumors, suppress the fMRI activation of the anatomical areas they invade and, thus, brain-damaged functional networks present missing links/areas of activation. The identification of the missing circuitry components is of crucial importance to estimate the damage extent. The study of functional networks associated with clinical tasks but performed by healthy individuals becomes, therefore, of paramount concern. These “healthy” networks can, indeed, be used as control networks for clinical studies. In this work we investigate the functional architecture of 20 healthy individuals performing a language task designed for clinical purposes. We unveil a common architecture persistent across all subjects under study, that we call “core” network, which involves Broca’s area, Wernicke’s area, the premotor area, and the pre-supplementary motor area. We study the connectivity of this circuitry by using the k-core centrality measure, and we find that three of these areas belong to the most robust structure of the functional language network for the specific task under study. Our results provide useful insights on primarily important functional connections.
url https://www.mitpressjournals.org/doi/abs/10.1162/netn_a_00112
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