The coupled band gap of longitudinal wave in metamaterial-based double-rod containing resonators

This study investigates the coupled band gap and vibration propagation characteristics of elastic waves in a metamaterial elastic double-rod system with attached periodic resonators. We derive the band gap structure and vibration attenuation equations of double-rod structure using the spectral element method, Bloch’s theorem, and the transfer matrix method. The validity of the coupled band gap is confirmed through forced vibration response analysis. Furthermore, we examine the effects of various parameters on the double-rod system, revealing that coupled band gaps exist with the average vibration attenuation rates of −50.23 dB for rod one and −47.87 dB for rod two, respectively. Remarkably, by adjusting the double-rod parameters, both the band gap frequency range and vibration attenuation ability of the coupled band gap can be adjusted to meet specific engineering requirements in low-frequency regions. This research contributes to developing continuous mechanical structures featuring coupled band gaps.

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Publication Details

Journal
Journal of Vibration and Control
Published
2024-09-04
DOI
https://doi.org/10.1177/10775463241276706
Citations
1
Primary Topic
Acoustic Wave Phenomena Research
Type
article
Field-Weighted Citation Impact
0.18

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article

The coupled band gap of longitudinal wave in metamaterial-based double-rod containing resonators

Fuzhen Pang, Kai Zhang, Baocheng Zhang, Ziwei Deng et al.
1 citations
Journal of Vibration and Control
Acoustic Wave Phenomena Research
0.18
article

The coupled band gap of longitudinal wave in metamaterial-based double-rod containing resonators

Fuzhen Pang, Kai Zhang, Baocheng Zhang, Ziwei Deng, Peng Liu, Lei Peng, Qihang Sun
article en
1 citations

Abstract

This study investigates the coupled band gap and vibration propagation characteristics of elastic waves in a metamaterial elastic double-rod system with attached periodic resonators. We derive the band gap structure and vibration attenuation equations of double-rod structure using the spectral element method, Bloch’s theorem, and the transfer matrix method. The validity of the coupled band gap is confirmed through forced vibration response analysis. Furthermore, we examine the effects of various parameters on the double-rod system, revealing that coupled band gaps exist with the average vibration attenuation rates of −50.23 dB for rod one and −47.87 dB for rod two, respectively. Remarkably, by adjusting the double-rod parameters, both the band gap frequency range and vibration attenuation ability of the coupled band gap can be adjusted to meet specific engineering requirements in low-frequency regions. This research contributes to developing continuous mechanical structures featuring coupled band gaps.

Journal of Vibration and ControlVol. 31(17-18)
Harbin Engineering University (CN), Ocean University of China (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 53%
Acoustic Wave Phenomena Research
0.18
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