Parametrically excited unidirectional wave propagation in thin beam phononics

IF 0.7 Q4 MECHANICS
Nevena Rosic, Danilo Karličić, Milan Cajić, M. Lazarevic
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引用次数: 1

Abstract

Wave attenuation, filtering and guiding is an ongoing topic of scientific research, as there are many opportunities for improvement of existing solutions in modern industry. One of the recent advancements has been made with the use of non-reciprocal metamaterials. Certain properties of metamaterials have made them suitable for use in various engineering fields. In this study, we investigate non-reciprocal wave propagation behavior in coupled thin beams phononics, due to time-modulation of material properties and axial loads. We compare the results for the beams which are interconnected with Winkler?s type of elastic layers and elastic or viscoelastic Pasternak layers. An analytic approach is used to discover directional band gaps and investigate wave propagation through these systems of beams, at relevant excitation frequencies. The proposed framework can be exploited in further analysis of phononic systems based on multiple beams coupled through different mediums and structural elements modeled with higher-order beam theories.
细束声子中参数激发的单向波传播
波的衰减、滤波和导波是一个不断发展的科学研究课题,因为在现代工业中存在许多改进现有解决方案的机会。最近的一项进展是使用非互易超材料。超材料的某些特性使其适用于各种工程领域。在这项研究中,我们研究了由于材料特性和轴向载荷的时间调制而导致的耦合薄束声子中的非互反波传播行为。我们比较了与Winkler?s型弹性层和弹性或粘弹性帕斯捷尔纳克层。用解析的方法来发现定向带隙,并研究波在相关激励频率下通过这些光束系统的传播。所提出的框架可用于进一步分析基于不同介质和高阶梁理论建模的结构单元耦合的多光束声子系统。
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来源期刊
CiteScore
0.90
自引率
0.00%
发文量
4
审稿时长
32 weeks
期刊介绍: Theoretical and Applied Mechanics (TAM) invites submission of original scholarly work in all fields of theoretical and applied mechanics. TAM features selected high quality research articles that represent the broad spectrum of interest in mechanics.
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