Studying the Effect of Volume Fraction of Glass Fibers on the Thermal Conductivity of the Polymer Composite Materials
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Studying the Effect of Volume Fraction of Glass Fibers on the Thermal Conductivity of the Polymer Composite Materials. (2019). Al-Khwarizmi Engineering Journal, 4(3), 85-97. https://alkej.uobaghdad.edu.iq/index.php/alkej/article/view/598

Abstract

In this study the effect of fiber volume fraction of the glass fiber on the thermal conductivity of the polymer composite material was studied. Different fiber volume fraction of glass fibers were used (3%, 6%, 9%, 12%, and 15%). Specimens were made from polyester which reinforced with glass fibers .The fibers had two arrangements according to the direction of the thermal flow. In the first arrangement the fibers were parallel to the direction of the thermal flow, while the second arrangement was perpendicular; Lee's disk method was used for testing the specimens. The experimental results proved that the values of the thermal conductivity of the specimens was higher when the fibers arranged in parallel direction than that when the fibers arranged in the perpendicular direction. The percentage of increasing of experimental thermal conductivity was 96.91% for parallel arrangement and 13.33% for perpendicular arrangement comparison with its original value before the using of glass fibers.

Also the experimental results indicated that the thermal conductivity increases with the increasing of the fiber volume fraction. Minimum value was (0.172 W/m.°C) for perpendicular arrangement at fiber volume fraction 3% and maximum value was (0.327 W/m.°C) for parallel arrangement at fiber volume fraction 15%.

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References

[1] Zhan – Sheng Guo, Shanyi Du and Boming Zhang, “Temperature Distribution of the Thick Thermoset Composite”, Journal of Modeling and Simulation in materials Science and engineering, Volume 12, issue 3, (China) may, (2004).
[2] Murthy, Dr. A. Rama Krishna and B.V Rama Krishna,” Thermal Analysis of Epoxy Based Fiber-Reinforced”, IE(I) Journal–MC, Vol.84, April, (2004)
[3] F. Rondeaux, Ph. Bready and J.M. Rey, “Thermal Conductivity Measurements of Epoxy Systems at Low Temperature”, Cryogenic Engineering Conference (CEC), (USA), July (2001).
[4] Raimund Rolfes,” 2D Finite Element Formulation for 3D Temperature Analysis of Numerical Simulation of Heat Transfer”, Journal of numerical simulation of heat transfer, Germany, May, (2001).
[5] Lamees A. Khalaf, "Studying the mechanical and physical properties for unsaturated polyester reinforced by fiber glass and nylon fiber
composites", M.Sc. Thesis, University of Technology, Materials engineering Department (2006) Baghdad Iraq.
[6] M.W. Pilling, B. Yates, M.A. Black, “The Thermal Conductivity of Carbon Fiber – Reinforced Composites “, Journal of Materials Science, Vol.14, (1979).
[7] Saad M. Elie, "Studied the mechanical properties and thermal conductivity for polymer composite material reinforced by aluminum and aluminum oxide particles", M.Sc. thesis, University of Technology, Materials engineering Department (2007) Baghdad Iraq .
[8] B.W. James and P. Harrison,” Analysis of the Temperature Distribution, Heat Flow and Effective Thermal Conductivity of Homogenous Composite Materials with Anisotropic Thermal Conductivity”, Journal of Physics, Vol.D, Applied Physics, issue 9, sept. (1992).
[9] Charles A Sorrell, “Advanced Nanoporous Composite Materials for Industrial Heating Applications”, Applied Sciences Laboratory, Inc., http://www.eere.energy.gov/industry/imf/pdfs/ibni.composite. pdf., (2002)
[10] W. Bolton,” Engineering Materials Technology”, butterworth – Heinemann, Third edition, (1998) Great Britain.
[11] Oronzio Manca, Biagio Morrone, Giuseppe Romano, “Analysis of Thermal Response of Composite Materials “, Dipartimento Ingegneria Aerospaziale Meccanica, ttp://event.ua.pt/ds2005/manca3.pdf., Italy, (2005).
[12] William D. Callister,” Materials Science and Engineering An Introduction”, Sixth Edition, John Wiley and Sons, Inc., (2003).U.S.A .New York.
[13] Munshid H. Muhammad, Study of Mechanical and Thermal Behaviour of Hybrid Composite from Carbon and Kevlar Fibers M.Sc. Thesis, University of Technology, Al-Rasheed College for Engineering and Sciences Applied Science Department (1989)Baghdad Iraq .
[14] Salwin B. Abid Al-Wihid, Study of Mechanical properties of Hybrid Composite from Carbon and Kevlar Fibers M.Sc. thesis, University of Technology, Al-Rasheed College for Engineering and Sciences Applied Science Department (1989) Baghdad Iraq.

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