EFFECT OF ORIENTATION OF GLASS FIBER MAT-EPOXY COMPOSITE ON MECHANICAL PROPERTIES

Authors

  • Masud A K M 4Department of Industrial and Production Engineering,Bangladesh University of Engineering and Technology (BUET),Dhaka
  • Kamal Miah Md Department of Industrial and Production Engineering,Bangladesh University of Engineering and Technology (BUET),Dhaka
  • Abdullah-Al-Khaled Department of Industrial and Production Engineering,Bangladesh University of Engineering and Technology (BUET),Dhaka
  • Farhana Abedin Department of Industrial and Production Engineering,Bangladesh University of Engineering and Technology (BUET),Dhaka

Keywords:

Copped Strand Glass Fiber Mat, Epoxy and Energy Absorption

Abstract

Fiber reinforced plastic composites are drawing attention in the field of material research due to their light weight, but their development have been hindered by their inferior mechanical properties. Thus extensive research is being carried out to improve their mechanical properties. In this research, an experimental investigation has been conducted by incorporating Chopped Strand Mat and Woven Roving Mat of glass fiber into epoxy matrix. Here different orientations of the mats are considered in order to improve the mechanical properties of glass fiber reinforced composite. A die is manufactured to accommodate different orientation of the glass fiber mats. Specimens are cut from the molded composite plates according to the ASTM specifications. Tensile test is carried out in order to investigate the effect of orientation of glass fiber mats on mechanical properties of the composites. Tensile strength, Young’s modulus, Energy absorption and Elongation properties of the composites are analyzed and compared with the properties of the Epoxy resin.

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References

Corum J., Ruggles M., Battiste R. L., Simpson W. A., McCoy H. E. and Weitsman Y. J.,1996, “Durability of composites in automotive structural applications.”, Annual Automotive Technology Development Customers Coordination Meeting, Vol. II: Automotive R&D Poster Session, pp. 313-327.

Karger-Kocsis, J. and Fejes-Kozma Zs., 1994, “Damage zone development and failure sequence in glass fiber mat-reinforced polypropylene under static loading conditions.”, Mechanics of Composite Materials, 20(l), p13 .

Ren W. and Brinkman C. R., January 1998, “Creep and creep rupture behavior of a continuous strand, swirl mat reinforced polymer composite in automotive environments.”, Proceedings of International Composites Expo ‘98, Nashville, TN., Session 21-E.

Corum J. M. et al., November 1999, “Durability-based design criteria for a chopped-glass-fiber automotive structural composite”, ORNL/TM-1999/182, Lockheed Martin Energy Research Corp., Oak Ridge National Laboratory.

Corum J. M. et al., February 1998, Durability- design criteria for an automotive structural Composite: part 2. Background data and models”, ORNL-693 1, Lockheed Martin Energy Research Corp., Oak Ridge National Laboratory.

Ren- W., 2001, “Time-dependent deformation modeling for a chopped-glass-fiber composite for automotive durability design criteria”, Composites science and Technology.

Farley, G. L., 1986, “Effect of Specimen Geometry on the Energy Absorption Capability of Composite Materials”, J. Comp. Mat., 20, pp.390-400.

Majzoobi, G.H., and Sainee, F., 2005, “A tensile impact apparatus for characterization of fibrous composites at high strain rates” , Journal of Material Processing Technology, Vol.162-163, pp. 76-82.

Pardo, S., Baptise, D., and Fitoussi, J. , 2002, “Tensile dynamic behavior of a quasi- unidirectional E-Glass polyester composite”, Composites Science and Technology, Vol.62, pp. 579-584.

Farley, G. L., 1987, “Energy Absorption in Composite Materials for Crashworthy Structures”, Proc. Of ICCM6, Elsevier Science Publishers, London, pp. 3.57-3.66.

Ramakrishna, S., H. Hamada, and D. Hull. “Impacts and Dynamic Fracture of Polymers and Composites” , (ESIS10), Mechanical Engineering Publications, London, pp. 453-464.

Heinz, D., Ritcher, B. and Weber, S., 2000, “Application of Advanced Materials for Ship Construction: Experience and Problems”, Materials and Corrosion 51, pp. 407–412.

J. Gao and Y. J. Weitsman, July 1998, “The Tensile Mechanical Properties and Failure Behavior of Composite”, MAE598-2.0-CM, The University of Tennessee.

J. M. Corum, R. L. Battiste, W. Ren, and M. B. Ruggles, November 1999, “Durability-Based Design Criteria for a Chopped-Glass-Fiber Automotive Structural Composite”, ORNL- TM-19991182, Lockheed Martin Energy Research Corp., Oak Ridge National Laboratory.

R. Talreja, July 1995, “Fatigue of Composite Materials”, in Durability of Polymer Matrix Composites for Automotive Structural Applications: A State-of-the-Art Review”, ORNL-6869, Martin Marietta Energy Systems, Inc., Oak Ridge National Laboratory.

Michael G. Bader, Leif A. Carlsson, Carl H. Zweben, John W. Gillespie, and Wilburn Smith, 1989, “Delaware Composites Design Encyclopedia: Processing and Fabriactaion Technology, Volume III” CRC Press, pp. 106-107.

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Published

2009-03-01

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Articles

How to Cite

[1]
“ EFFECT OF ORIENTATION OF GLASS FIBER MAT-EPOXY COMPOSITE ON MECHANICAL PROPERTIES”, JME, vol. 4, no. 1, pp. 80–85, Mar. 2009, Accessed: Dec. 21, 2024. [Online]. Available: https://smenec.org/index.php/1/article/view/611

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