Bionic Inner-Tapered Energy Absorption Tube Featuring Progressively Enhanced Fold Deformation Mode.

IF 3.9 3区 医学 Q1 ENGINEERING, MULTIDISCIPLINARY Biomimetics Pub Date : 2024-12-26 DOI:10.3390/biomimetics10010006
Shuang Zhang, Zhengzhi Mu, Wenda Song, Zhiyan Zhang, Hexuan Yu, Binjie Zhang, Zhiwu Han, Luquan Ren
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Abstract

Slender tubes are in high demand owing to their lightweight and outstanding energy absorption. However, conventional slender tubes are prone to catastrophic failures such as Euler's buckling under axial load. Interestingly, growing bamboos overcome this similar dilemma via a unique tapered intine in the internodes, which endows them with excellent energy absorption. Inspired by this finding, a bionic inner-tapered tube (BITT) was designed to enhance the energy absorption of slender tubes under axial load. The special energy absorption (SEA) was evaluated via a quasi-static axial compression test. Then, theoretical calculation and finite element analysis were carried out to analyze the energy absorption mechanisms. The results reveal that the tapered inner wall induces a progressively enhanced fold deformation mode for BITT, which not only prevents buckling failure and decreases initial peak crushing load but also improves the energy absorption efficiency by increasing plastic deformation. The influences of taper and length-diameter ratio on the axial energy absorption of BITT are explored. Finally, the bionic square array (BSA) and bionic hexagon array (BHA) are fabricated by taking BITT as the basic structural unit, which significantly improves the main energy absorption performance indicators under axial load.

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具有逐渐增强的折叠变形模式的仿生内锥形能量吸收管。
细长管由于其重量轻和出色的能量吸收而需求量很大。然而,传统的细长管在轴向载荷作用下容易发生欧拉屈曲等灾难性破坏。有趣的是,生长中的竹子通过节间独特的锥形线克服了类似的困境,这赋予了它们出色的能量吸收能力。受此启发,设计了一种仿生内锥形管(BITT),以增强细长管在轴向载荷下的能量吸收。通过准静态轴压试验对特殊能量吸收(SEA)进行了评价。然后进行理论计算和有限元分析,分析吸能机理。结果表明:锥形内壁使BITT的褶皱变形模式逐渐增强,不仅防止了屈曲破坏,降低了初始峰值破碎载荷,而且通过增加塑性变形提高了能量吸收效率;探讨了锥度和长径比对BITT轴向吸能的影响。最后,以BITT为基本结构单元,制备了仿生方阵(BSA)和仿生六边形阵(BHA),显著提高了轴向载荷下的主要吸能性能指标。
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来源期刊
Biomimetics
Biomimetics Biochemistry, Genetics and Molecular Biology-Biotechnology
CiteScore
3.50
自引率
11.10%
发文量
189
审稿时长
11 weeks
期刊最新文献
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