Abstract
The previous chapter is concerned with the occurrence of stochastic resonance in certain nonlinear systems and some of its applications. The stochastic resonance phenomenon can be realized when a bistable or a multistable system is driven by a weak periodic force and additive noise of appropriate intensity. Injection of noise to a nonlinear system, through a cooperative interaction, brings assistance to the weak signal in eliciting a more efficient response by overcoming a potential barrier or a threshold. The Russian physicist Polina Landa and the British physicist Peter McClintock [1] investigated the dynamics of a bistable system driven by a biharmonical external periodic force with two different frequencies, say, ω and Ω with Ω ≫ ω. That is, they replaced the noise term applied to observe stochastic resonance by a relatively high-frequency force. When the amplitude or frequency of the high-frequency force is varied they found a nonmonotonic variation of the amplitude of the output signal at the low-frequency ω of the input signal. Specifically, the amplitude of the output signal increased from a small value, reached a maximum at one or two critical values of the control parameter and then decayed. Since this phenomenon is induced by a relatively high-frequency force at the low-frequency ω of the input signal, it is termed as vibrational resonance.
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Rajasekar, S., Sanjuan, M.A.F. (2016). Vibrational Resonance in Monostable Systems. In: Nonlinear Resonances. Springer Series in Synergetics. Springer, Cham. https://doi.org/10.1007/978-3-319-24886-8_3
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