Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer

This research aims to understand the simplified finite element (FE) model behavior for estimating the glass fiber reinforced polyester polymer (GFRP) structural response and studying its tensile properties. The simplified FE model has been developed using an equivalent single-ply transversely isotro...

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Main Authors: Ahmad Fauzan Zakki, Aulia Windyandari
Format: Article
Language:English
Published: Elsevier 2022-10-01
Series:Heliyon
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2405844022022873
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author Ahmad Fauzan Zakki
Aulia Windyandari
author_facet Ahmad Fauzan Zakki
Aulia Windyandari
author_sort Ahmad Fauzan Zakki
collection DOAJ
description This research aims to understand the simplified finite element (FE) model behavior for estimating the glass fiber reinforced polyester polymer (GFRP) structural response and studying its tensile properties. The simplified FE model has been developed using an equivalent single-ply transversely isotropic material model to estimate the multi-layer GFRP laminates tensile behavior. The linear elastic and a trilinear plasticity material formulation were adopted. The experimental study is conducted to determine the tensile properties of the equivalent single-ply model of the multi-layer laminates with the variation of layers number, stacking sequence, and fiber orientation. The tensile test specimen used E-glass fiber reinforcement and polyester resin (Yukalac 157 BQTN-EX) as the matrix. The hand layup method was used for the lamination procedure. The experimental results show that the nonlinearity might occur due to the imperfection and poor quality of the composite laminate. Therefore, the comparison of numerical simulation and the experimental results is conducted to understand the stress-strain behavior of the simplified FE model. Both models presented different characteristics and showed good agreement with the experimental results. The linear model can be adopted while the nonlinearity is not significantly identified. Furthermore, the plastic strain as a compensated constant should be defined thoroughly to conduct an accurate estimation using the trilinear plasticity model. However, neither model is suitable for predicting the composite laminate’s initial failure point.
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spelling doaj.art-d9f873febc744d379bb1c701a722b8462022-12-22T02:42:56ZengElsevierHeliyon2405-84402022-10-01810e10999Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymerAhmad Fauzan Zakki0Aulia Windyandari1Naval Architecture Department, Engineering Faculty, Diponegoro University, Semarang 50275, Central Java, Indonesia; Corresponding author.Industrial Technology Department, Vocational School, Diponegoro University, Semarang 50275, Central Java, IndonesiaThis research aims to understand the simplified finite element (FE) model behavior for estimating the glass fiber reinforced polyester polymer (GFRP) structural response and studying its tensile properties. The simplified FE model has been developed using an equivalent single-ply transversely isotropic material model to estimate the multi-layer GFRP laminates tensile behavior. The linear elastic and a trilinear plasticity material formulation were adopted. The experimental study is conducted to determine the tensile properties of the equivalent single-ply model of the multi-layer laminates with the variation of layers number, stacking sequence, and fiber orientation. The tensile test specimen used E-glass fiber reinforcement and polyester resin (Yukalac 157 BQTN-EX) as the matrix. The hand layup method was used for the lamination procedure. The experimental results show that the nonlinearity might occur due to the imperfection and poor quality of the composite laminate. Therefore, the comparison of numerical simulation and the experimental results is conducted to understand the stress-strain behavior of the simplified FE model. Both models presented different characteristics and showed good agreement with the experimental results. The linear model can be adopted while the nonlinearity is not significantly identified. Furthermore, the plastic strain as a compensated constant should be defined thoroughly to conduct an accurate estimation using the trilinear plasticity model. However, neither model is suitable for predicting the composite laminate’s initial failure point.http://www.sciencedirect.com/science/article/pii/S2405844022022873GFRPTensile propertiesEquivalent single-ply modelTrilinear plasticity modelTransversely isotropic
spellingShingle Ahmad Fauzan Zakki
Aulia Windyandari
Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
Heliyon
GFRP
Tensile properties
Equivalent single-ply model
Trilinear plasticity model
Transversely isotropic
title Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
title_full Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
title_fullStr Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
title_full_unstemmed Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
title_short Simplified FE model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
title_sort simplified fe model and experimental study on the tensile properties of the glass fiber reinforced polyester polymer
topic GFRP
Tensile properties
Equivalent single-ply model
Trilinear plasticity model
Transversely isotropic
url http://www.sciencedirect.com/science/article/pii/S2405844022022873
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AT auliawindyandari simplifiedfemodelandexperimentalstudyonthetensilepropertiesoftheglassfiberreinforcedpolyesterpolymer