Stochastic master stability function for noisy complex networks.

Phys Rev E

Department of Electrical Engineering and Information Technology, University of Naples, 80125 Federico II, Italy.

Published: May 2020

AI Article Synopsis

  • The paper expands the master stability function approach to analyze the synchronization stability in complex networks of stochastic systems.
  • It establishes necessary and sufficient conditions for exponential stability, highlighting how noise impacts synchronization differently.
  • The findings are supported by simulations, showing that evenly distributed noise can aid synchronization, while excessive localized noise can disrupt network stability.

Article Abstract

In this paper, we broaden the master stability function approach to study the stability of the synchronization manifold in complex networks of stochastic dynamical systems. We provide necessary and sufficient conditions for exponential stability that allow us to discriminate the impact of noise. We observe that noise can be beneficial for synchronization when it diffuses evenly in the network. On the contrary, an excessively large amount of noise only acting on a subset of the node state variables might have disruptive effects on the network synchronizability. To demonstrate our findings, we complement our theoretical derivations with extensive simulations on paradigmatic examples of networks of noisy systems.

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Source
http://dx.doi.org/10.1103/PhysRevE.101.052211DOI Listing

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