带有强化界面的周期杆的抗振研究

Zhenlong Xu, Meng Cui, Chao Zhao, Xiao-bin Zang
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引用次数: 0

摘要

如果两种或两种以上的弹性材料在一维、二维或三维中周期性排列,就可以实现声子晶体。与电磁波在光子晶体中的传播类似,声子晶体对声音或机械波也具有声子带隙的特性。即某一频带的声音或机械波不能通过声子晶体。人们认为声子晶体可以像光子晶体一样得到广泛的应用。采用传递矩阵法、有限元法和实验方法研究了棒状一维声子晶体的抗振性能。为了提高不同材料之间的结合强度,我们设计了一种新的结构,在接缝处加盖板。计算结果表明,这种结构仍然具有宽度为三倍的带隙,并且波的频率范围将最小化。本文对功能声子晶体的工程应用进行了探索,为更复杂的声子带隙结构的设计和分析奠定了理论基础和实验基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
The vibration proof study of the periodical rod with the strengthened interfaces
If two or more kinds of elastic materials are arranged periodically in 1D, 2D, or 3D, a phononic crystal is realized. Similar to the electromagnetic wave propagation in a photonic crystal, the phononic crystal also has the property of phononic band gap for the sound or mechanical wave. That is, certain frequency band of sound or mechanical wave cannot pass the phononic crystal. It is believed that the phononic crystal can be used as widely as photonic crystal. The Transfer Matrix Method, finite element method and experiment are used to study the vibration proof property of a rod like 1D phononic crystal. To improve the bound strength between different materials, we designed a new structure with covers at the joints. The computational results show that such a structure still has the band gap whose width is three times wider, and the frequency range of wave will be minimized. The work in the paper explores the engineering application of the functional phononic crystals, and prepares the theory and the experiment for the design and analysis of more complicate phononic band gap structures.
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