Characteristics Composite Materials to be Used in Trans-Tibial Prosthetic Sockets

https://doi.org/10.24237/djes.2019.12212

Authors

  • Bassam A. Alwan Department of Mechanical Engineering, College of Engineering, University of Daiyla, Iraq
  • Muhsin J. Jweeg Scientific affairs department, University of Telafer, Iraq
  • Zaid S. Hammoudi Department of Mechanical Engineering, College of Engineering, University of Daiyla, Iraq

Keywords:

Composite Materials, Carbon Fiber, Testing of Materials, Trans-Tibial, Socket

Abstract

To initate a datebase on material properties on typical laminations used in belwo knee prosthetic socket (Trans-Tibial). The authors subjected samples of common prosthetic socket laminations to tensile, bending, and fatigue tests. Two varieties of lay up material (fibers) were each laminated separately with common resins (acrylic), resulting in four combinations of fiber/acrylic resin. Fibers made of carbon fiber and perlon fiber were used at different volume fractions. The result showed that socket prosthesis made of carbon fiber and perlon fiber (12 layers) has highest tensile and flexural strenght when compared to other laminations. Material test results indicate that the composite material (12 Layers) have better tensile and fatigue properties than composite material (8 layers). The ultimate tensile strength, and the modulus of elasticity composite material (12 layers) are higher than those of the composite material (8 layers) by 0.124% and 0.072% respectively, and by 0.1% and 0.185 for composite material (8 layers ) with volume fraction of matrix equal 0.72). Vacuum technique is good process and this prevented cavites or defects in specimens.

Downloads

Download data is not yet available.

References

. D A. Berry, Composite materials for orthotics and prosthetics, American orthotic and prosthetic association 40 (1987) 35-43.

. G A. Coombes, C D Greenwood, and J J Shorter, Human Biomaterials Applications, Boston, 2011.

. J. Al-khazraji, J. Kadhim and P. Ahmed , Tensile and Fatigue Characteristics of Lower-Limb Prosthetic Socket Made from Composite Materials, International Conference on Industrial Engineering and Operations Management Istanbul, Turkey 2012, 843-852.

. S l Philips, and C. William, Material properties of selected prosthetic laminates, American academy of orthotics and prosthesis, 17 (2005) 25-32.

. I R. Abd Al-razaq, K.K. Resan, and Y K. Ibrahim, Modular socket system versus vacuum technique in trans-tibial prosthetic socket, International Journal of Energy and Environment, (2016) 1-13.

. D A. Taylor, J C. Gilbert, and E P. Lautencschilager, Testing of Composite Materials Used in Orthotics and Prosthetics, the associations of children's prosthetic-orthotic Clinic, 1992.

. V. Faulkner, M. Field, J W. Egan, and N G. Gall, Evaluation of high strength materials for prosthesis, American orthotic and prosthetic association, 40 (1987) 44-58.

. A P Irawan, T P. Soemardi, K. Widajalaksmi, and A.H. Reksoprodjo, Tensile and flexural strength of ramie fiber reinforced epoxy composites for socket prosthesis application, international journal of mechanical and materials engineering, 6 (2011) 46-50.

. F H Abdulla, M H. Megat, M S. Sapuan, and B B Sahari, Determination of volume fraction values of filament wound glass and carbon fiber reinforced composites, journal of engineering and applied sciences, 3 (2008) 7-11.

. Annual Book of ASTM Standard, "Standard Test Method for Tensile Properties of Plastics", D638-99.

. Annual Book of ASTM Standard, "Standard Test Method for flexural Properties of Plastics", D790.

. Annual Book Alternating Bending Fatigue Machine instruction manual HSM20

. K. K Alaneme and M O. Bodunrin, Mechanical behavior of alumina reinforced AA 6063 metal matrix composites developed by two step-stir casting process, acta technical corviniensis-bulletin engineering, (2013) 105-110.

. R G. Budynas and J K Nisbett, Mechanical engineering desgin, Ninth ed, 2011.

. K. S Santhosh, C P Reghunadhan, and K N. Ninan, Effect of fiber length and composition on mechanical properties of carbon fiber-reinforced polybenzoxazine" Polymers for Advanced Technologies, 19 (2007) 895-904.

. B. Peirson, Comparison of specific properties of engineering materials" school of engineering, grand valley state university, 2005.

. J. A Campbell "material selection in an above knee prosthetic leg" engineering materials, department of materials, Australian national university, 2002.

. W C Lee, M. Zhang, D A. Boone, and B. Contoyannis, Finite element analysis to determine effect of mono limb flexibility on structural strength and interaction between residual limb and prosthetic socket, journal of rehabilitation research and development, 41 (2004) 775-786.

. I R Abd Al-razaq, K K Resan, and Y K. Ibrahim, Design and manufacturing of prosthetic below knee socket by modular socket system, journal of engineering and development, 20 (2016) 147-162.

Published

2019-06-01

How to Cite

[1]
B. A. Alwan, Muhsin J. Jweeg, and Zaid S. Hammoudi, “Characteristics Composite Materials to be Used in Trans-Tibial Prosthetic Sockets”, DJES, vol. 12, no. 2, pp. 114–122, Jun. 2019.