Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis

Three-dimensional (3D) woven spacer composites have the advantage of being lightweight and strong for use in various segments of structural engineering and automobiles due to their superior mechanical properties than conventional counterparts. In this investigation, the influence of different cell g...

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Main Authors: Lekhani Tripathi, Soumya Chowdhury, Bijoya Kumar Behera
Format: Article
Language:English
Published: idd3 2020-03-01
Series:Textile & Leather Review
Subjects:
Online Access:http://www.textile-leather.com/tlr-3-1-2020-tripathi/
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author Lekhani Tripathi
Soumya Chowdhury
Bijoya Kumar Behera
author_facet Lekhani Tripathi
Soumya Chowdhury
Bijoya Kumar Behera
author_sort Lekhani Tripathi
collection DOAJ
description Three-dimensional (3D) woven spacer composites have the advantage of being lightweight and strong for use in various segments of structural engineering and automobiles due to their superior mechanical properties than conventional counterparts. In this investigation, the influence of different cell geometries of 3D woven spacer fabrics, namely rectangular, triangular and trapezoidal with woven cross-links, upon their mechanical behaviors, especially compression energy, was studied through FEM (finite element method). Cell geometries were changed into different heights and widths and evaluated through simulation and experiments. Simulation of the structure was carried out by the Abaqus platform, and validation of the results was done for the rectangular structure. It was found that compression energy increases with an increment in width, while initially, it shows the tendency to increase and subsequently decrease with an increment in height for the rectangular structure. Compression energy increases with an increase in the angle of the triangular structure; however, it shows the opposite trend in the case of the trapezoidal structure. The outcome of the result shows good agreement between simulation and experimentation values of more than 94% accuracy.
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spelling doaj.art-dd29f1bdc2ea486faf19153d4dd1f3232022-12-21T18:13:54Zengidd3Textile & Leather Review2623-62572623-62812020-03-013161810.31881/TLR.2020.03Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM AnalysisLekhani Tripathi0Soumya Chowdhury1Bijoya Kumar Behera2Indian Institute of Technology Delhi, Department of Textile Technology, Hauz Khas, New Delhi 110016, IndiaIndian Institute of Technology Delhi, Department of Textile Technology, Hauz Khas, New Delhi 110016, IndiaIndian Institute of Technology Delhi, Department of Textile Technology, Hauz Khas, New Delhi 110016, IndiaThree-dimensional (3D) woven spacer composites have the advantage of being lightweight and strong for use in various segments of structural engineering and automobiles due to their superior mechanical properties than conventional counterparts. In this investigation, the influence of different cell geometries of 3D woven spacer fabrics, namely rectangular, triangular and trapezoidal with woven cross-links, upon their mechanical behaviors, especially compression energy, was studied through FEM (finite element method). Cell geometries were changed into different heights and widths and evaluated through simulation and experiments. Simulation of the structure was carried out by the Abaqus platform, and validation of the results was done for the rectangular structure. It was found that compression energy increases with an increment in width, while initially, it shows the tendency to increase and subsequently decrease with an increment in height for the rectangular structure. Compression energy increases with an increase in the angle of the triangular structure; however, it shows the opposite trend in the case of the trapezoidal structure. The outcome of the result shows good agreement between simulation and experimentation values of more than 94% accuracy.http://www.textile-leather.com/tlr-3-1-2020-tripathi/3d woven spacer fabriccell geometrylightweight compositescompression energysimulation
spellingShingle Lekhani Tripathi
Soumya Chowdhury
Bijoya Kumar Behera
Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis
Textile & Leather Review
3d woven spacer fabric
cell geometry
lightweight composites
compression energy
simulation
title Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis
title_full Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis
title_fullStr Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis
title_full_unstemmed Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis
title_short Modelling and Simulation of Compression Behaviour of 3D Woven Hollow Composite Structures Using FEM Analysis
title_sort modelling and simulation of compression behaviour of 3d woven hollow composite structures using fem analysis
topic 3d woven spacer fabric
cell geometry
lightweight composites
compression energy
simulation
url http://www.textile-leather.com/tlr-3-1-2020-tripathi/
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AT soumyachowdhury modellingandsimulationofcompressionbehaviourof3dwovenhollowcompositestructuresusingfemanalysis
AT bijoyakumarbehera modellingandsimulationofcompressionbehaviourof3dwovenhollowcompositestructuresusingfemanalysis