Karthika, MR and Deb, A and Venkatesh, GS (2020) An effective finite element modeling approach for prediction of the behaviour of a jute fibre-reinforced composite tube under axial impact. In: International Journal of Crashworthiness .
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Abstract
The focus of the work reported here is on the prediction of the behaviour of a hollow cylindrical jute� polyester composite tube under axial impact using the explicit finite element analysis code, LS-DYNA. An efficient finite element modelling approach using a single shell element through the thickness of a thin-walled structural part has been chosen. Effective orthotropic material properties of a laminate which can be determined through standard ASTM tests have been used as input data for a popular constitutive model titled �Enhanced Composite Damage� with the option of specifying either the Chang�Chang criteria or the Tsai�Wu criterion for failure. A unique feature of the current approach is to verify the modeling procedure initially for coupon-level tensile, compressive and flexural tests through a numerical design of experiments involving a set of physically meaningful fibre and matrix failure strain parameters, and then extend the same toward successfully predicting the mechanical behaviour of a jute composite tube subject to axial drop-weight impact. Theoretical predictions of peak responses for flexural and tube impact tests are also presented. © 2020 Informa UK Limited, trading as Taylor & Francis Group.
Item Type: | Journal Article |
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Publication: | International Journal of Crashworthiness |
Publisher: | Taylor and Francis Ltd. |
Additional Information: | The copyright of this article belongs to Taylor and Francis Ltd. |
Keywords: | Design of experiments; Fiber reinforced plastics; Forecasting; Jute fibers; Laminated composites; Thin walled structures, Drop weight impact; Explicit finite element analysis; Fibre reinforced composites; Finite element modelling; Mechanical behaviour; Modeling procedure; Orthotropic material properties; Polyester composites, Finite element method |
Department/Centre: | Division of Mechanical Sciences > Centre for Product Design & Manufacturing |
Date Deposited: | 11 Sep 2020 11:40 |
Last Modified: | 11 Sep 2020 11:40 |
URI: | http://eprints.iisc.ac.in/id/eprint/66500 |
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