Synchronization Metric for Sinusoidally Coupled Periodically Modulated Josephson Junctions
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Abstract
Synchronization control of coupled dynamical systems with bounded control functions in spite of advantages in the optimization of control functions has not been adequately explored. In order to further demonstrate the advantage of this control technique, this paper presents the effect of sinusoidal coupling on two periodically modulated chaotic Josephson junctions evolving from different initial conditions. A sufficient analytical criterion for the determination of the coupling threshold that leads to common dynamical behaviour called synchronization was derived. The derived analytical criterion is applied to sinusoidally coupled periodically modulated Josephson junctions within two dynamical regimes and to illustrate the effectiveness of the analytical criterion. Numerical simulations of the analytical result show the achievement of stable synchronization. The result can be applied to determine the level and the strength of interaction between several particles or objects interacting on different topological configurations that can result in different dynamical behaviours.
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