2018
DOI: 10.1103/physreve.98.022320
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Macroscopic chimeralike behavior in a multiplex network

Abstract: In this paper we study the dynamics of a multiplex multilayer network, where each layer is composed of identical Kuramoto-Sakaguchi phase oscillators with nonlocal coupling. We focus on a three-layer multiplex network and observe a specific form of multiplex network behavior, the macroscopic chimeralike state. It is decomposed by a splitting of the layers with initially close dynamics into subgroups. The first group consists of two layers performing one type of dynamics, whereas the rest perform the other type… Show more

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Cited by 28 publications
(13 citation statements)
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“…Notably, few works have taken the same model as ours but with identical oscillators; they have shown the presence of chimera states due to a phase shift in the intra or interlayer couplings. 34,35 In this work, we show that a phase shift in the interlayer coupling terms of a multiplex network of the Kuramoto oscillators can trigger ES in the layers. Sec.…”
mentioning
confidence: 66%
“…Notably, few works have taken the same model as ours but with identical oscillators; they have shown the presence of chimera states due to a phase shift in the intra or interlayer couplings. 34,35 In this work, we show that a phase shift in the interlayer coupling terms of a multiplex network of the Kuramoto oscillators can trigger ES in the layers. Sec.…”
mentioning
confidence: 66%
“…Synchronization [11][12][13][14][15] is one among them. Different types of synchronization scenarios have been observed in multiplex framework, such as intra-layer synchronization [16,17], inter-layer synchronization [18][19][20], cluster synchronization [21,22], explosive synchronization [23][24][25], and chimera states [26][27][28].…”
Section: Introductionmentioning
confidence: 99%
“…Various forms of synchronization patterns have been described such as complete [32,90,82], cluster [33], intralayer [71], interlayer [50], and relay synchronization [35,49,79,78,94,81]. It was shown how the interaction of two layers can be used to induce and control certain types of dynamical phenomena such as phase cluster states [11], solitary [53] and chimera states [37,52,60,62,76,77], explosive synchronization [98], congestion [85], stochastic and coherence resonance [80,95]. Recently, intimate relations between adaptive and multilayered coupling structures have been elucidated [12,9,10,44,43,67].…”
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confidence: 99%