9th International Science Congress (ISC-2019).  International E-publication: Publish Projects, Dissertation, Theses, Books, Souvenir, Conference Proceeding with ISBN.  International E-Bulletin: Information/News regarding: Academics and Research

Effect of different Concentrations on Mechanical Properties of Polymer Composites

Author Affiliations

  • 1Institute of Chemical Sciences, Gomal University Dera Ismail Khan 29050, KPK-Pakistan
  • 2Institute of Chemical Sciences, Gomal University Dera Ismail Khan 29050, KPK-Pakistan
  • 3Institute of Chemical Sciences, Gomal University Dera Ismail Khan 29050, KPK-Pakistan
  • 4Department of Chemistry, University of Science and Technology Bannu 28100, KPK-Pakistan
  • 5Department of Physics, University of Science and Technology Kohat 28100, KPK-Pakistan
  • 6Department of Physics, University of Science and Technology Kohat 28100, KPK-Pakistan

Res.J.chem.sci., Volume 6, Issue (3), Pages 8-15, March,18 (2016)

Abstract

Fiberglass is widely used in the preparation of materials such as bus bodies, aero planes, chairs, tables, in the preparation of various instruments etc. The reason for such important applications of fiberglass is that it is hard like steel and iron materials but have advantage over these that it is not rusted. It has also low weight like plastic materials. It can also be recycled and reused. In our current study we have prepared various samples of Fiberglass by hand lay –up operation method and studied the mechanical properties of these samples using Universal Test Machine. The effect of changing concentrations of various constituents is studied.

References

  1. Pithily H. (2009)., An experimental investigation of wear of glass of fiber epoxy resin and glass fiber polyester composite materials., J. European polymer, 45, 149-154.
  2. Edwards K.L. (1998)., An overview of the technology of fiber reinforced plastics for design purposes., Material and Design. 19(1-2), 1-10.
  3. Nawy Edward. G. (2001)., Fundamentals of high-performance concrete (2nd.)., John Wiley and Sons., 310, ISBN 9780471385554.
  4. Mayer Rayner M. (1993)., Design with reinforced plastics., Springer, 7, ISBN 9780850722949.
  5. Gupta V.B. and Kothari V.K. (1997)., Manufactured Fiber Technology., Chapman and Hall publishing London, 544-546.
  6. Milos V.B. (1990)., Technical approach to glass., New York, Elsevier.
  7. Frank P.I. and David P.D. (1990)., Fundamental of heat and mass transfer (3rd Ed)., John Wiley and sons, A 11-12.
  8. Ilschner B. et al. (2000)., Composite materials, Ullmann’s Encyclopedia of Industrial chemistry Weinheim, Germany., Wiley-VCH Verlag GmbH and Co.KGaA).
  9. Erhard G. (2006)., Designing with plastics Trans., Martin Thompson. Munich: Hanser publishers.
  10. New recycling effort (2009)., Aims to push KC to go green with its glass., Kansas City, star, posted on Kansas city.com.
  11. North American Insulation Manufacturers Association (2009)., FAQ., undefined
  12. Pastureau P. (1907)., Le Superoxyde de la methylethylcelone, Comptes Rendus, 144, 90-93.
  13. Milas N.A. and Goluboric (2012)., Studies in Organic Peroxide., XXV. Preparation, Separation and Identification of Peroxides derived from Methyl Ethyl Ketone and Hydrogen peroxide.
  14. Yuan M.H., Shu C.M. and Kossoy A.A. (2005)., Kinetics and hazards of thermal decomposition methyl ethyl ketone peroxide by DSC., Thermochemica acta, 430, 67-71
  15. Martin J.L. (1999)., Kinetic analysis of an asymmetrical DSC peak in the curing of an unsaturated polyester resin catalysed with MEKP and cobalt octoate., Polymer, 40, 3451.
  16. Martin J.S., Laza J.M. and Morras M.L. (2000)., Study of the curing process of a vinyl ester resin by means of TSR and DMTA., Polymer, 41, 4203.
  17. Liaw H.J., Chen C.J. and Yar C.C. (2001)., The multiple runaway-reaction behavior prediction of MEK–oxidation reactions., J. loss Pre. Process Ind. 14, 371.
  18. Yeh P.Y., Shu C.M. and Duh Y.S. (2003)., Thermal hazard analysis of methyl ethyl ketone peroxide., Ind. Eng. Chem. Res., 42, 1.
  19. Rhim J.W., Park H.B., Lee C.S., Jun J.H., Kim D.S. and Lee Y.M. (2004)., Crosslinked poly (vinyl alcohol) membranes containing sulfonic acid group: proton and methanol transport through membranes., J. Memb. Sci., 238, 143.
  20. Kumar G.G., Uthirakumar P., Nahm K.S. and Elizabeth R.N. (2009)., Fabrication and electrochemical properties of PVA /Para Toluene Sulphonic acid membranes for the applications of DMFC., Solid State Ionics. 180, 282-287.
  21. Bill Meyer F.W. (2007)., Text book of polymer Science, 3rdEdition, John Wiley and sons., New York.
  22. Langenheim J. (2003)., Plant Resins., Chemistry, evolution, ecology, and ethno botany, Timber Press, Portland.
  23. Ulrich Poth. (2002)., Drying Oils and Related Products., Ullmann