Ballistic impact of Twaron CT709® plain weave fabrics

The ballistic impact of Twaron CT709® plain weave fabrics is studied using a three-dimensional fabric model. The model is developed by treating each individual yarn as a continuum, and the time-dependent yarn behavior is phenomenologically described using a three-dimensional linear viscoelastic cons...

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Published in:Mechanics of Advanced Materials and Structures
Main Author: Gogineni S.; Gao X.-L.; David N.V.; Zheng J.Q.
Format: Article
Language:English
Published: 2012
Online Access:https://www.scopus.com/inward/record.uri?eid=2-s2.0-84863491170&doi=10.1080%2f15376494.2011.575532&partnerID=40&md5=b75517eae2e77cf29045cb950edc0c6b
id 2-s2.0-84863491170
spelling 2-s2.0-84863491170
Gogineni S.; Gao X.-L.; David N.V.; Zheng J.Q.
Ballistic impact of Twaron CT709® plain weave fabrics
2012
Mechanics of Advanced Materials and Structures
19
6
10.1080/15376494.2011.575532
https://www.scopus.com/inward/record.uri?eid=2-s2.0-84863491170&doi=10.1080%2f15376494.2011.575532&partnerID=40&md5=b75517eae2e77cf29045cb950edc0c6b
The ballistic impact of Twaron CT709® plain weave fabrics is studied using a three-dimensional fabric model. The model is developed by treating each individual yarn as a continuum, and the time-dependent yarn behavior is phenomenologically described using a three-dimensional linear viscoelastic constitutive relation. A user subroutine VUMAT for ABAQUS/Explicit is compiled to incorporate the constitutive behavior. By using the newly developed model, a parametric study is carried out to analyze the effects of various parameters on the impact behavior of the fabrics, which include impact velocity, inter-yarn friction, and the number of fabric layers. The simulation results obtained include bullet residual velocity, fabric deformation and damage pattern, kinetic energy of the system, fabric strain energy, and frictional dissipation energy. The residual velocities predicted by the current model correlate well with existing experimental data, and the parametric study leads to the determination of the optimal number of fabric layers and the optimized level of inter-yarn friction that are needed to achieve the maximum energy absorption in the fabrics at specified impact velocities. © 2012 Copyright Taylor and Francis Group, LLC.

15376532
English
Article

author Gogineni S.; Gao X.-L.; David N.V.; Zheng J.Q.
spellingShingle Gogineni S.; Gao X.-L.; David N.V.; Zheng J.Q.
Ballistic impact of Twaron CT709® plain weave fabrics
author_facet Gogineni S.; Gao X.-L.; David N.V.; Zheng J.Q.
author_sort Gogineni S.; Gao X.-L.; David N.V.; Zheng J.Q.
title Ballistic impact of Twaron CT709® plain weave fabrics
title_short Ballistic impact of Twaron CT709® plain weave fabrics
title_full Ballistic impact of Twaron CT709® plain weave fabrics
title_fullStr Ballistic impact of Twaron CT709® plain weave fabrics
title_full_unstemmed Ballistic impact of Twaron CT709® plain weave fabrics
title_sort Ballistic impact of Twaron CT709® plain weave fabrics
publishDate 2012
container_title Mechanics of Advanced Materials and Structures
container_volume 19
container_issue 6
doi_str_mv 10.1080/15376494.2011.575532
url https://www.scopus.com/inward/record.uri?eid=2-s2.0-84863491170&doi=10.1080%2f15376494.2011.575532&partnerID=40&md5=b75517eae2e77cf29045cb950edc0c6b
description The ballistic impact of Twaron CT709® plain weave fabrics is studied using a three-dimensional fabric model. The model is developed by treating each individual yarn as a continuum, and the time-dependent yarn behavior is phenomenologically described using a three-dimensional linear viscoelastic constitutive relation. A user subroutine VUMAT for ABAQUS/Explicit is compiled to incorporate the constitutive behavior. By using the newly developed model, a parametric study is carried out to analyze the effects of various parameters on the impact behavior of the fabrics, which include impact velocity, inter-yarn friction, and the number of fabric layers. The simulation results obtained include bullet residual velocity, fabric deformation and damage pattern, kinetic energy of the system, fabric strain energy, and frictional dissipation energy. The residual velocities predicted by the current model correlate well with existing experimental data, and the parametric study leads to the determination of the optimal number of fabric layers and the optimized level of inter-yarn friction that are needed to achieve the maximum energy absorption in the fabrics at specified impact velocities. © 2012 Copyright Taylor and Francis Group, LLC.
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