Recurrence quantification analysis for the identification of burst phase synchronisation
Author(s) -
Ewandson L. Lameu,
Serhiy Yanchuk,
Elbert E. N. Macau,
Fernando S. Borges,
Kelly C. Iarosz,
Iberê L. Caldas,
Paulo R. Protachevicz,
Rafael R. Borges,
Ricardo L. Viana,
José D. Szezech,
Antônio M. Batista,
Jürgen Kurths
Publication year - 2018
Publication title -
chaos an interdisciplinary journal of nonlinear science
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.971
H-Index - 113
eISSN - 1089-7682
pISSN - 1054-1500
DOI - 10.1063/1.5024324
Subject(s) - recurrence quantification analysis , chaotic , bursting , computer science , gaussian , phase (matter) , identification (biology) , recurrence plot , topology (electrical circuits) , artificial intelligence , statistical physics , nonlinear system , pattern recognition (psychology) , mathematics , physics , neuroscience , botany , quantum mechanics , combinatorics , biology
In this work, we apply the spatial recurrence quantification analysis (RQA) to identify chaotic burst phase synchronisation in networks. We consider one neural network with small-world topology and another one composed of small-world subnetworks. The neuron dynamics is described by the Rulkov map, which is a two-dimensional map that has been used to model chaotic bursting neurons. We show that with the use of spatial RQA, it is possible to identify groups of synchronised neurons and determine their size. For the single network, we obtain an analytical expression for the spatial recurrence rate using a Gaussian approximation. In clustered networks, the spatial RQA allows the identification of phase synchronisation among neurons within and between the subnetworks. Our results imply that RQA can serve as a useful tool for studying phase synchronisation even in networks of networks.
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