Telling functional networks apart using ...
Document type :
Article dans une revue scientifique
Permalink :
Title :
Telling functional networks apart using ranked network features stability
Author(s) :
Zanin, Massimiliano [Auteur]
Güntekin, Bahar [Auteur]
Aktürk, Tuba [Auteur]
Yıldırım, Ebru [Auteur]
Yener, Görsev [Auteur]
Kiyi, Ilayda [Auteur]
Hünerli-Gündüz, Duygu [Auteur]
Sequeira, Henrique [Auteur]
Sciences Cognitives et Sciences Affectives (SCALab) - UMR 9193
Papo, David [Auteur]
Güntekin, Bahar [Auteur]
Aktürk, Tuba [Auteur]
Yıldırım, Ebru [Auteur]
Yener, Görsev [Auteur]
Kiyi, Ilayda [Auteur]
Hünerli-Gündüz, Duygu [Auteur]
Sequeira, Henrique [Auteur]
Sciences Cognitives et Sciences Affectives (SCALab) - UMR 9193
Papo, David [Auteur]
Journal title :
Scientific Reports
Abbreviated title :
Sci Rep
Volume number :
12
Pages :
p.2562
Publisher :
Springer Science and Business Media LLC
Publication date :
2022-02-15
ISSN :
2045-2322
English keyword(s) :
Alzheimer's disease
Complex networks
Network models
Parkinson's disease
Complex networks
Network models
Parkinson's disease
HAL domain(s) :
Sciences cognitives
English abstract : [en]
Over the past few years, it has become standard to describe brain anatomical and functional organisation in terms of complex networks, wherein single brain regions or modules and their connections are respectively identified ...
Show more >Over the past few years, it has become standard to describe brain anatomical and functional organisation in terms of complex networks, wherein single brain regions or modules and their connections are respectively identified with network nodes and the links connecting them. Often, the goal of a given study is not that of modelling brain activity but, more basically, to discriminate between experimental conditions or populations, thus to find a way to compute differences between them. This in turn involves two important aspects: defining discriminative features and quantifying differences between them. Here we show that the ranked dynamical stability of network features, from links or nodes to higher-level network properties, discriminates well between healthy brain activity and various pathological conditions. These easily computable properties, which constitute local but topographically aspecific aspects of brain activity, greatly simplify inter-network comparisons and spare the need for network pruning. Our results are discussed in terms of microstate stability. Some implications for functional brain activity are discussed.Show less >
Show more >Over the past few years, it has become standard to describe brain anatomical and functional organisation in terms of complex networks, wherein single brain regions or modules and their connections are respectively identified with network nodes and the links connecting them. Often, the goal of a given study is not that of modelling brain activity but, more basically, to discriminate between experimental conditions or populations, thus to find a way to compute differences between them. This in turn involves two important aspects: defining discriminative features and quantifying differences between them. Here we show that the ranked dynamical stability of network features, from links or nodes to higher-level network properties, discriminates well between healthy brain activity and various pathological conditions. These easily computable properties, which constitute local but topographically aspecific aspects of brain activity, greatly simplify inter-network comparisons and spare the need for network pruning. Our results are discussed in terms of microstate stability. Some implications for functional brain activity are discussed.Show less >
Language :
Anglais
Audience :
Internationale
Popular science :
Non
Administrative institution(s) :
Université de Lille
CNRS
CHU Lille
CNRS
CHU Lille
Research team(s) :
Équipe Dynamique Émotionnelle et Pathologies (DEEP)
Submission date :
2024-01-17T14:32:55Z
2024-02-12T15:42:07Z
2024-02-12T15:42:07Z
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