Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure

Bio-inspired multi-cell thin-walled structure has the advantages of light quality and strong impact resistance. The bio-inspired structures design of lotus root and horsetail were coupled with a thin-walled hollow tube, and two novel bio-inspired multi-cell structures were proposed. One was the coup...

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Main Authors: CHEN YaTing, HONG YiHao, WU Jun, WU Fei, ZHENG ShiWei, ZHAO ShunQiu
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Strength 2024-06-01
Series:Jixie qiangdu
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Online Access:http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2024.03.029
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author CHEN YaTing
HONG YiHao
WU Jun
WU Fei
ZHENG ShiWei
ZHAO ShunQiu
author_facet CHEN YaTing
HONG YiHao
WU Jun
WU Fei
ZHENG ShiWei
ZHAO ShunQiu
author_sort CHEN YaTing
collection DOAJ
description Bio-inspired multi-cell thin-walled structure has the advantages of light quality and strong impact resistance. The bio-inspired structures design of lotus root and horsetail were coupled with a thin-walled hollow tube, and two novel bio-inspired multi-cell structures were proposed. One was the coupling structure of thin-walled hollow tube and lotus root (LR-IS) , and the other was the coupling structure of thin-walled hollow tube, lotus root and horsetail (LR-HS-IS) . The models were built by Pro/E and imported into the finite element software Abaqus for numerical simulation analysis. In addition, the 3D printing molding technology was used to make the structures. The mechanical behavior and energy absorption characteristics under axial impact of drop hammer impact test and finite element numerical simulation were studied. The results show that the bio-inspired multi-cell structures have good energy absorption effect, significantly improve the carrying capacity, load efficiency and specific energy absorption. Compared with the individual thin-walled hollow tube, the bio-inspired multi-cell thin-walled structures can not only significantly reduce the impact effect, but also the initial peak force is relatively stable. In addition, the structures are also very consistent with the requirements of lightweight and high energy absorption.
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institution Kabale University
issn 1001-9669
language zho
publishDate 2024-06-01
publisher Editorial Office of Journal of Mechanical Strength
record_format Article
series Jixie qiangdu
spelling doaj-art-ab0bdc5537c24e7782564c0dc2bb5c772025-01-15T02:45:27ZzhoEditorial Office of Journal of Mechanical StrengthJixie qiangdu1001-96692024-06-014675075563938877Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structureCHEN YaTingHONG YiHaoWU JunWU FeiZHENG ShiWeiZHAO ShunQiuBio-inspired multi-cell thin-walled structure has the advantages of light quality and strong impact resistance. The bio-inspired structures design of lotus root and horsetail were coupled with a thin-walled hollow tube, and two novel bio-inspired multi-cell structures were proposed. One was the coupling structure of thin-walled hollow tube and lotus root (LR-IS) , and the other was the coupling structure of thin-walled hollow tube, lotus root and horsetail (LR-HS-IS) . The models were built by Pro/E and imported into the finite element software Abaqus for numerical simulation analysis. In addition, the 3D printing molding technology was used to make the structures. The mechanical behavior and energy absorption characteristics under axial impact of drop hammer impact test and finite element numerical simulation were studied. The results show that the bio-inspired multi-cell structures have good energy absorption effect, significantly improve the carrying capacity, load efficiency and specific energy absorption. Compared with the individual thin-walled hollow tube, the bio-inspired multi-cell thin-walled structures can not only significantly reduce the impact effect, but also the initial peak force is relatively stable. In addition, the structures are also very consistent with the requirements of lightweight and high energy absorption.http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2024.03.029Bionic engineeringFinite element simulationExperimentEnergy absorptionImpact resistance
spellingShingle CHEN YaTing
HONG YiHao
WU Jun
WU Fei
ZHENG ShiWei
ZHAO ShunQiu
Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure
Jixie qiangdu
Bionic engineering
Finite element simulation
Experiment
Energy absorption
Impact resistance
title Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure
title_full Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure
title_fullStr Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure
title_full_unstemmed Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure
title_short Study on impact energy absorption characteristics of biomimetic multi-cell thin-walled structure
title_sort study on impact energy absorption characteristics of biomimetic multi cell thin walled structure
topic Bionic engineering
Finite element simulation
Experiment
Energy absorption
Impact resistance
url http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2024.03.029
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