Wave Propagation in a Strongly Nonlinear Mass-in-Mass Chain With Soft Springs and Stability and Bifurcation Analyses of Periodic Solutions

Abstract A modified incremental harmonic balance (IHB) method is used to obtain a periodic solution for wave propagation in a strongly nonlinear mass-in-mass chain with soft springs. To analyze its stability and detect bifurcations of the solution, a method based on the Hill’s method is employed. This work first reveals that the solution is in a hyperplane with two dimensions. Comprehensive analyses are conducted to explore relationships among the amplitude, the frequency, and system parameters. Notably, superharmonic resonances and fusions of optical and acoustic branches are identified, which are absent in the chain with hard springs. Results of the modified IHB method are compared with those of the Lindstedt–Poincaré (LP) method. While results from the two methods have the same trend at a low amplitude, the LP method fails to capture complex nonlinear characteristics at a high amplitude, such as bifurcations and turning points. Finally, attenuation zones for optical and acoustic branches are determined.

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Publication Details

Journal
Journal of Applied Mechanics
Published
2025-08-26
DOI
https://doi.org/10.1115/1.4069590
Primary Topic
Nonlinear Photonic Systems
Type
article
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article

Wave Propagation in a Strongly Nonlinear Mass-in-Mass Chain With Soft Springs and Stability and Bifurcation Analyses of Periodic Solutions

Weidong D. Zhu, Bingxu Zhang
Journal of Applied Mechanics
Nonlinear Photonic Systems
article

Wave Propagation in a Strongly Nonlinear Mass-in-Mass Chain With Soft Springs and Stability and Bifurcation Analyses of Periodic Solutions

Weidong D. Zhu, Bingxu Zhang
article en

Abstract

Abstract A modified incremental harmonic balance (IHB) method is used to obtain a periodic solution for wave propagation in a strongly nonlinear mass-in-mass chain with soft springs. To analyze its stability and detect bifurcations of the solution, a method based on the Hill’s method is employed. This work first reveals that the solution is in a hyperplane with two dimensions. Comprehensive analyses are conducted to explore relationships among the amplitude, the frequency, and system parameters. Notably, superharmonic resonances and fusions of optical and acoustic branches are identified, which are absent in the chain with hard springs. Results of the modified IHB method are compared with those of the Lindstedt–Poincaré (LP) method. While results from the two methods have the same trend at a low amplitude, the LP method fails to capture complex nonlinear characteristics at a high amplitude, such as bifurcations and turning points. Finally, attenuation zones for optical and acoustic branches are determined.

Journal of Applied MechanicsVol. 92(12)
University of Maryland, Baltimore County (US)
Openalex Percentile: Top 82%
Nonlinear Photonic Systems
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