Diversity-induced resonance in a system of globally coupled linear oscillators
arXiv:0806.2106 · doi:10.1142/S0218127409024931
Abstract
The purpose of this paper to analyze in some detail the arguably simplest case of diversity-induced reseonance: that of a system of globally-coupled linear oscillators subjected to a periodic forcing. Diversity appears as the parameters characterizing each oscillator, namely its mass, internal frequency and damping coefficient are drawn from a probability distribution. The main ingredients for the diversity-induced-resonance phenomenon are present in this system as the oscillators display a variability in the individual responses but are induced, by the coupling, to synchronize their responses. A steady state solution for this model is obtained. We also determine the conditions under which it is possible to find a resonance effect.
Reported at the XI International Workshop "Instabilities and Nonequilibrium Structures" Vina del Mar (Chile)
References in corpus (8)
- Diversity-induced resonance
- Amplified signal response in scale-free networks by collaborative signaling
- Global firing induced by noise or diversity in excitable media
- Sparse repulsive coupling enhances synchronization in complex networks
- Collective effects induced by diversity in extended systems
- On the Collective Behavior of Parametric Oscillators
- Spatial Patterns Induced Purely by Dichotomous Disorder
- Global firing induced by network disorder in ensembles of active rotators
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