Traveling Waves and their Tails in Locally Resonant Granular Systems

Abstract

In the present study, we revisit the theme of wave propagation in locally resonant granular crystal systems, also referred to as Mass-in-Mass systems. We use 3 distinct approaches to identify relevant traveling waves. The first consists of a direct solution of the traveling wave problem. The second one consists of the solution of the Fourier tranformed variant of the problem. or, more precisely, of its convolution reformulation (upon an inverse Fourier transform) of the problem in real space. Finally, our third approach will restrict considerations to a finite domain, utilizing the notion of Fourier series for important technical reasons, namely the avoidance of resonances, that will be discussed in detail. All three approaches can be utilized in either the displacement or the strain formulation. Typical resulting computations in finite domains result in the solitary waves bearing symmetric non-vanishing tails at both ends of the computational domain. Importantly, however, a countably infinite set of resonance conditions is identified for which solutions with genuinely monotonic decaying tails arise.

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Cited by in corpus (7)

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• Solitary Waves in Mass-in-Mass Lattices
• Nanoptera in nonlinear woodpile chains with zero precompression
• Dispersive wave propagation in disordered flexible fibers enhances stress attenuation
• Nonlinear waves in a strongly nonlinear resonant granular chain
• Nanoptera in weakly nonlinear woodpile and diatomic granular chains
• Metamaterial two-sphere Newton's cradle