ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING

Combined simulation and test to investigate the collapse failure mode and energy absorption characteristics of wingding carbon fiber reinforced composite(CFRP[± 45°/90°])/Al hybrid thin-walled circular tube under quasi-static axial compression load. Failure mode,Load-displacement curves and energy a...

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Main Authors: DONG BoYan, MA QiHua, YAO Yuan, HU PeiYuan, SUN ZeYu
Format: Article
Language:zho
Published: Editorial Office of Journal of Mechanical Strength 2020-01-01
Series:Jixie qiangdu
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Online Access:http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2020.04.009
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author DONG BoYan
MA QiHua
YAO Yuan
HU PeiYuan
SUN ZeYu
author_facet DONG BoYan
MA QiHua
YAO Yuan
HU PeiYuan
SUN ZeYu
author_sort DONG BoYan
collection DOAJ
description Combined simulation and test to investigate the collapse failure mode and energy absorption characteristics of wingding carbon fiber reinforced composite(CFRP[± 45°/90°])/Al hybrid thin-walled circular tube under quasi-static axial compression load. Failure mode,Load-displacement curves and energy absorption characteristics were obtained under quasi-static axial crushing tests. A finite element model of hybrid tube was established according to samples. The simulation results with good agreement with the test were obtained by ABAQUS/Explicit,and the crushing failure behavior of the hybrid tube under quasistatic load was reproduced. Based on the simulation results,it was found that the initial crushing load,average crushing load,specific energy absorption and load efficiency of the mixing tube were increased by 97. 6%,93. 3%,57. 8% and 5. 9%,respectively. compared with the aluminum tube. The staged peaks and valleys of the crushing load were selected to analyze the shape of hybrid tube and the failure state of the fiber damage. The results show that when the hybrid tube is complete the fiber plays the main bearing role. In the crushing failure stage,the fiber damage failure mode changes with fiber winding angle,the crushing morphology of aluminum tube and the bonding interface state of CFRP/Al. Subsequently,the energy absorption characteristics of CFRP/Al hybrid circular tubes with three different structure forms were compared. It was found that hybrid circular tube with CFRP[90°/± 45°] wrapped the outside of the aluminum has the best energy absorption.
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institution Kabale University
issn 1001-9669
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publishDate 2020-01-01
publisher Editorial Office of Journal of Mechanical Strength
record_format Article
series Jixie qiangdu
spelling doaj-art-a91068f0412c4c6c90ebd1a11fdce8612025-01-15T02:27:35ZzhoEditorial Office of Journal of Mechanical StrengthJixie qiangdu1001-96692020-01-014281782530608505ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHINGDONG BoYanMA QiHuaYAO YuanHU PeiYuanSUN ZeYuCombined simulation and test to investigate the collapse failure mode and energy absorption characteristics of wingding carbon fiber reinforced composite(CFRP[± 45°/90°])/Al hybrid thin-walled circular tube under quasi-static axial compression load. Failure mode,Load-displacement curves and energy absorption characteristics were obtained under quasi-static axial crushing tests. A finite element model of hybrid tube was established according to samples. The simulation results with good agreement with the test were obtained by ABAQUS/Explicit,and the crushing failure behavior of the hybrid tube under quasistatic load was reproduced. Based on the simulation results,it was found that the initial crushing load,average crushing load,specific energy absorption and load efficiency of the mixing tube were increased by 97. 6%,93. 3%,57. 8% and 5. 9%,respectively. compared with the aluminum tube. The staged peaks and valleys of the crushing load were selected to analyze the shape of hybrid tube and the failure state of the fiber damage. The results show that when the hybrid tube is complete the fiber plays the main bearing role. In the crushing failure stage,the fiber damage failure mode changes with fiber winding angle,the crushing morphology of aluminum tube and the bonding interface state of CFRP/Al. Subsequently,the energy absorption characteristics of CFRP/Al hybrid circular tubes with three different structure forms were compared. It was found that hybrid circular tube with CFRP[90°/± 45°] wrapped the outside of the aluminum has the best energy absorption.http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2020.04.009CFRP/AlHybrid thin-walled circular tubeNumerical simulationDamage failureEnergy absorption characteristicStructure form
spellingShingle DONG BoYan
MA QiHua
YAO Yuan
HU PeiYuan
SUN ZeYu
ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING
Jixie qiangdu
CFRP/Al
Hybrid thin-walled circular tube
Numerical simulation
Damage failure
Energy absorption characteristic
Structure form
title ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING
title_full ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING
title_fullStr ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING
title_full_unstemmed ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING
title_short ENERGY ABSORPTION ANALYSIS OF FILAMENT-WOUND CFRP/AL HYBRID THIN-WALLED CIRCULAR TUBE UNDER AXIALLY CRUSHING
title_sort energy absorption analysis of filament wound cfrp al hybrid thin walled circular tube under axially crushing
topic CFRP/Al
Hybrid thin-walled circular tube
Numerical simulation
Damage failure
Energy absorption characteristic
Structure form
url http://www.jxqd.net.cn/thesisDetails#10.16579/j.issn.1001.9669.2020.04.009
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AT maqihua energyabsorptionanalysisoffilamentwoundcfrpalhybridthinwalledcirculartubeunderaxiallycrushing
AT yaoyuan energyabsorptionanalysisoffilamentwoundcfrpalhybridthinwalledcirculartubeunderaxiallycrushing
AT hupeiyuan energyabsorptionanalysisoffilamentwoundcfrpalhybridthinwalledcirculartubeunderaxiallycrushing
AT sunzeyu energyabsorptionanalysisoffilamentwoundcfrpalhybridthinwalledcirculartubeunderaxiallycrushing