塑料瓶超材料再利用的初步研究

IF 1.4 Q3 ACOUSTICS BUILDING ACOUSTICS Pub Date : 2023-10-25 DOI:10.1177/1351010x231205002
Preeti Gulia, Sourabh Dogra, Arpan Gupta
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引用次数: 0

摘要

本文介绍了一种利用塑料废物设计低频和高频波衰减超材料的新方法。这种超材料采用管道状结构,不同大小的瓶子周期性排列。这种结构导致局部共振带的形成,其范围从240到340赫兹。在数值模型和实验装置中,对所提出的结构进行了谐波激励,并计算了传输损耗作为频率的函数。实验结果与数值模拟结果一致,证实了所设计的超材料的有效性。在这项工作中发现的一个关键方面是,在瓶子的颈部和结构的侧壁之间引入空间,使瓶子充当亥姆霍兹谐振器。因此,反过来,这导致了一个额外的带隙在低频,补充现有的布拉格带隙实现了周期性排列的瓶子。改变瓶子大小的能力可以控制带隙的位置,允许更大的灵活性来定制特定的噪声衰减要求的超材料。这些基于塑料瓶的超材料的应用非常广泛,特别是在改善建筑物的室内声环境方面。这项工作为可持续环保超材料领域的进一步探索和创新开辟了新的途径。
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Preliminary study of reuse of plastic bottles as metamaterial
The present work introduces a novel approach to designing metamaterial for low frequency and high frequency wave attenuation by repurposing plastic waste. The metamaterial is constructed using a duct-like structure with a periodic arrangement of bottles of different sizes. This configuration leads to the formation of a local resonant band, which spans from 240 to 340 Hz. In both the numerical model and the experimental setup, a harmonic excitation is given to the proposed configuration and transmission loss is computed as a function of frequency. The experimental results support the findings obtained from numerical simulations, confirming the effectiveness of the designed metamaterial. One crucial aspect discovered in this work is that introducing space between the bottle’s neck and the side wall of the structure causes the bottles to act as Helmholtz resonators. Thus, in turn, this results in an additional band gap at low frequencies, complementing the existing Bragg’s band gap achieved by the periodic arrangement of bottles. The ability to change the size of the bottles gives control over the position of the band gap, allowing for greater flexibility in tailoring the metamaterial to specific noise attenuation requirements. The applications of these plastic bottle-based metamaterials are wide ranging, especially in improving the indoor acoustic environment of buildings. This work opens up a new avenue for further exploration and innovation in the field of sustainable and environmentally friendly metamaterials.
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来源期刊
BUILDING ACOUSTICS
BUILDING ACOUSTICS ACOUSTICS-
CiteScore
4.10
自引率
11.80%
发文量
22
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