Investigating the Energy Absorption Characteristics of the Tropical Jackfruit (Artocarpus Heterophyllus) Inspired Sandwich Panel

Syed Mohaimenul Islam, Abu Shadat Muhammad Sayem, Muhammed Kamrul Islam
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Abstract

Different biological systems and objects have existed in nature in a best-fitted way for millions of years under various environmental conditions. These objects, with their extraordinary features, can be the design inspiration for engineers and scientists. Energy absorption characteristic is an important parameter for structures that safeguard human life and precious goods from accidental loading conditions. Moreover, sandwich panels, known for their excellent weight-to-stiffness ratio, are widely used for tailoring this purpose. In this study, a bio-inspired sandwich panel has been developed, drawing inspiration from the spiky structure of the outer shell of the tropical Jackfruit. The energy absorption characteristics and some other parameters are investigated using a computational approach and compared with two other types of structures (i.e., solid and hollow structures). The computational approach primarily entails a nonlinear static analysis that emulates a quasi-static compression test. Compared to the solid structure, the proposed biomimetic structure exhibits a mass and volume reduction of approximately 82% and 83%, respectively. The densification strain is also higher than the solid one, which ultimately increases the effective crushing distance for the proposed structure. In addition, the energy absorption (EA) and specific energy absorption (SEA) of the proposed biomimetic structure are approximately 4 and 2.5 times higher than those of the hollow structure. However, further investigations are required to justify its feasibility as an efficient energy absorber.
研究热带菠萝(Artocarpus Heterophyllus)灵感夹芯板的能量吸收特性
在各种环境条件下,不同的生物系统和物体以最适合的方式在自然界中存在了数百万年。这些物体以其非凡的特性为工程师和科学家提供了设计灵感。能量吸收特性是保护人类生命和贵重物品免受意外荷载条件影响的结构的一个重要参数。此外,夹芯板以其出色的重量刚度比而闻名,被广泛用于实现这一目的。本研究从热带菠萝果外壳的尖刺结构中汲取灵感,开发了一种生物灵感夹芯板。通过计算方法研究了能量吸收特性和其他一些参数,并与其他两种结构(即实心结构和空心结构)进行了比较。计算方法主要包括模拟准静态压缩试验的非线性静态分析。与实心结构相比,拟议的仿生结构的质量和体积分别减少了约 82% 和 83%。生物仿生结构的致密化应变也高于实体结构,这最终增加了该结构的有效压溃距离。此外,拟生物仿生结构的能量吸收(EA)和比能量吸收(SEA)分别是空心结构的约 4 倍和 2.5 倍。然而,要证明其作为高效能量吸收器的可行性,还需要进一步的研究。
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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