2015
DOI: 10.1103/physreve.92.042803
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Basin stability for burst synchronization in small-world networks of chaotic slow-fast oscillators

Abstract: The impact of connectivity and individual dynamics on the basin stability of the burst synchronization regime in small-world networks consisting of chaotic slow-fast oscillators is studied. It is shown that there are rewiring probabilities corresponding to the largest basin stabilities, which uncovers a reason for finding small-world topologies in real neuronal networks. The impact of coupling density and strength as well as the nodal parameters of relaxation or excitability are studied. Dynamic mechanisms are… Show more

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Cited by 24 publications
(13 citation statements)
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“…Among other limitations as vehicle through which to estimate network connectivity, Pearson correlation will fail to identify phase-synchronized time series oscillating at different frequencies, and we do not yet have reason to believe that network-pairs “communicate” or couple only within extremely well-matched spectral regimes. At the neural level, for example, phase synchrony is still utilized as a central indicator of coupling strength [1, 2] even though different cell types are known to have different natural rates of firing [3]. The activation patterns captured by fMRI are at a much coarser spatial and temporal scale than multi-electrode neuronal recordings.…”
Section: Introductionmentioning
confidence: 99%
“…Among other limitations as vehicle through which to estimate network connectivity, Pearson correlation will fail to identify phase-synchronized time series oscillating at different frequencies, and we do not yet have reason to believe that network-pairs “communicate” or couple only within extremely well-matched spectral regimes. At the neural level, for example, phase synchrony is still utilized as a central indicator of coupling strength [1, 2] even though different cell types are known to have different natural rates of firing [3]. The activation patterns captured by fMRI are at a much coarser spatial and temporal scale than multi-electrode neuronal recordings.…”
Section: Introductionmentioning
confidence: 99%
“…The basins stability method has been used to identify three mechanisms which create the circulating power flows. Moreover, one can find significant number of studies that use basin stability method to show the way to increase the efficiency of power grids [2,42,43,83] Maslennikov et al [61] study the basin stability of the burst synchronization regime in small-world networks consisting of chaotic slow-fast oscillators. The results confirm that the coupling density and the coupling strength influence the basin stability similarly and there are threshold values above which the basin stability of the burst synchronization regime significantly increase.…”
Section: Applicationsmentioning
confidence: 99%
“…To calculate basin stability measure one has to perform a significant number of Bernoulli trials and classify the final solutions reached in each trial. Proposed idea has been successfully applied to asses the stability of power grids [63,85], systems with time delay [56], chimera states [79], stabilization of saddle fixed points in coupled oscillators [78] and brain dynamics [61]. In our previous papers we proposed extensions of this method [12].…”
Section: Introductionmentioning
confidence: 99%
“…Here noise can give rise to a form of dynamics reminiscent of mixed-mode oscillations, cf. So far, models similar to (2) have been applied to address a number of problems associated to collective phenomena in networks of coupled neurons, including synchronization of electrically coupled units with spike-burst activity [49,50], pattern formation in complex networks with modular architecture [13,14,51], transient cluster activity in evolving dynamical networks [16], as well as the basin stability of synchronization regimes in smallworld networks [15]. Within this paper, the collective motion will be described in terms of the global variables…”
Section: Map Neuron Dynamics and The Population Modelmentioning
confidence: 99%