Research Progress on Thin-Walled Sound Insulation Metamaterial Structures

Acoustics Pub Date : 2024-03-26 DOI:10.3390/acoustics6020016
Yumei Zhang, Jie Zhang, Ye Li, Dan Yao, Yue Zhao, Yi Ai, Weijun Pan, Jiang-Qiang Li
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Abstract

Acoustic metamaterials (AMs) composed of periodic artificial structures have extraordinary sound wave manipulation capabilities compared with traditional acoustic materials, and they have attracted widespread research attention. The sound insulation performance of thin-walled structures commonly used in engineering applications with restricted space, for example, vehicles’ body structures, and the latest studies on the sound insulation of thin-walled metamaterial structures, are comprehensively discussed in this paper. First, the definition and math law of sound insulation are introduced, alongside the primary methods of sound insulation testing of specimens. Secondly, the main sound insulation acoustic metamaterial structures are summarized and classified, including membrane-type, plate-type, and smart-material-type sound insulation metamaterials, boundaries, and temperature effects, as well as the sound insulation research on composite structures combined with metamaterial structures. Finally, the research status, challenges, and trends of sound insulation metamaterial structures are summarized. It was found that combining the advantages of metamaterial and various composite panel structures with optimization methods considering lightweight and proper wide frequency band single evaluator has the potential to improve the sound insulation performance of composite metamaterials in the full frequency range. Relative review results provide a comprehensive reference for the sound insulation metamaterial design and application.
薄壁隔音超材料结构的研究进展
与传统声学材料相比,由周期性人工结构组成的声学超材料(AMs)具有非凡的声波操纵能力,因此引起了广泛的研究关注。本文全面探讨了空间受限的工程应用领域(如车体结构)中常用薄壁结构的隔声性能,以及有关薄壁超材料结构隔声的最新研究。首先,介绍了隔声的定义和数学定律,以及试样隔声测试的主要方法。其次,对主要的隔声超材料结构进行了总结和分类,包括膜式、板式和智能材料式隔声超材料、边界和温度效应,以及与超材料结构相结合的复合结构的隔声研究。最后,总结了隔声超材料结构的研究现状、挑战和趋势。研究发现,将超材料和各种复合板材结构的优点与考虑轻量化和适当宽频带单一评价器的优化方法相结合,有可能提高复合超材料在全频率范围内的隔声性能。相关研究成果为隔声超材料的设计和应用提供了全面的参考。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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