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The Effect of Different Cross-Sectional Fiber of the Fiber-Reinforced Composite on Prediction of Elastic Modulus in Ansys


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1 Department of Mechanical Engineering, School of Engineering, Presidency University Bangalore, Karnataka, India
     

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This work aims to predict the elastic modulus of the fiber-reinforced polymer composites. A representative volume element (RVE) of size 420x420x420 micron has been created in Solidworks with 10%, 17%, 27%, 40% and 54% of fiber volume. The fiber of circular, square and hexagonal cross-section has been considered in this analysis. The symmetric boundary conditions have been applied to the representative volume element. It has been observed from the ANSYS that the results are not exactly similar to the rule of mixture. The results are varying with a change in the cross-section of the fiber. It is noticed that the elastic modulus is increased when the cross-section changes from circular to square to a hexagon with all said fiber volume. It is attributed due to increase in fiber-matrix surface area and the adhesion. Surprisingly it observed that in hexagonal and square fiber cross section cases the elastic modulus has decreased after 40% of volume fraction.

Keywords

Polymer Composites, Volume Fraction, Elastic Modulus, Different Cross-Sections.
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  • The Effect of Different Cross-Sectional Fiber of the Fiber-Reinforced Composite on Prediction of Elastic Modulus in Ansys

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Authors

Rohith Vankadhara
Department of Mechanical Engineering, School of Engineering, Presidency University Bangalore, Karnataka, India
Devendra Dandotiya
Department of Mechanical Engineering, School of Engineering, Presidency University Bangalore, Karnataka, India
Bhaskar Pal
Department of Mechanical Engineering, School of Engineering, Presidency University Bangalore, Karnataka, India

Abstract


This work aims to predict the elastic modulus of the fiber-reinforced polymer composites. A representative volume element (RVE) of size 420x420x420 micron has been created in Solidworks with 10%, 17%, 27%, 40% and 54% of fiber volume. The fiber of circular, square and hexagonal cross-section has been considered in this analysis. The symmetric boundary conditions have been applied to the representative volume element. It has been observed from the ANSYS that the results are not exactly similar to the rule of mixture. The results are varying with a change in the cross-section of the fiber. It is noticed that the elastic modulus is increased when the cross-section changes from circular to square to a hexagon with all said fiber volume. It is attributed due to increase in fiber-matrix surface area and the adhesion. Surprisingly it observed that in hexagonal and square fiber cross section cases the elastic modulus has decreased after 40% of volume fraction.

Keywords


Polymer Composites, Volume Fraction, Elastic Modulus, Different Cross-Sections.

References