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Submitted
September 26, 2015
Accepted
September 26, 2015
Published
September 26, 2015
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Abstract

This paper highlights the metallic, polymeric and ceramic materials used to manufacture the bearings, the kind of failures experienced with those materials and their causes. The failure mechanism of bearings and influence of various elements on their properties are reviewed. It is identified from the study that the failure is mainly provoked by initiating the surface micro crack/flake and then subsequently propagating them to failure. Materials influencing wear resistance to control the material removal rate without much compromising the fracture toughness are discussed. The advanced composite materials used in bearings are also discussed. A review on nano composites is also done to turn out the research on bearing materials towards nano composites. The evolution of MMC, nano-composites is investigated to come to a conclusion on stimulating a research work to make a better material for bearings at room temperature and cryogenic temperature. A suitable polymer material is suggested for carrying out the research at cryogenic temperature for low temperature application of bearings.

Keywords

Alloys polymers composites failure causes research exposure cryogenics.

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Authors retain the copyright without restrictions for their published content in this journal. IJSRTM is a SHERPA ROMEO Journal. 

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This is an open-access article distributed under the terms of  Creative Commons License

 

How to Cite
R, S., Rubens, N. J., & Sudhan, H. S. (2015). A REVIEW ON THE MATERIALS USED FOR BEARING AND FAILURE BEHAVIOR. International Journal of Students’ Research in Technology & Management, 1(4), 431–443. Retrieved from https://mgesjournals.com/ijsrtm/article/view/86
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References

  1. Benjamin P. Boesl, Gerald R. Bourne, Bhavani V. Sankar, Insitu multiscale analysis of fracture
  2. mechanisms in nanocomposites, Composites: Part B 42 (2011) 1157-1163
  3. Y.Qiao, S.Alvar, S.S.Chakravarthula, Essential Fracture Work of Nylon 6-Silicate Nanocomposites,
  4. Wiley InterScience, DOI 10.1002 / app.21241
  5. Kui Wang, Rodrigue Matadi Boumbimba et al, Dynamic Compressive Behavior of a Melt Mixed
  6. Polypropylene/Organoclay Nanocomposites, Journal of Engineering Materials and Technology, January
  7. , Vol. 134 / 010905-1
  8. A.Zandiatashbar, R.C.Picu, N.Koratkar, Mechanical Behavior of Epoxy-Graphene platelets
  9. Nanocomposites, Journal of Engineering Materials and Technology, July 2012, Vol. 134 / 031011-1
  10. Wyatt Leininger, Xinnan Wang, X.W.Tangpong, Marshall McNea, Nanoscale Structural and
  11. Mechanical Characterization of MWCNT-Reinforced Polymer Composites, Journal of Engineering
  12. Materials and Technology, April 2012, Vol. 134 / 021011-1
  13. K.S.Chan, Y.D.Lee, S.J.Hudak, Jr.,Model for the Effect of Fiber Bridging on the Fracture Resistance
  14. of Reinforced-Carbon-Carbon, Journal of Engineering Materials and Technology, April 2011, Vol.
  15. /021017-1
  16. Rodrigue Matadi Boumbimma, Said Ahzi et al, Dynamic Mechanical Properties of
  17. PMMA/Organoclay Nanocomposite: Experiments and Modeling, Journal of Engineering Materials and
  18. Technology, July 2011, Vol. 133 / 030908-1
  19. Osman Asi, An experimental study on the bearingstrength behavior of Al2O3 particle filled glass fiber
  20. reinforced epoxy composites pinned joints, Composite Structures 92 (2010) 354-363
  21. Amir Afshar, Iman Massoumi et al, Fracture behavior of dependence on load-bearing capacity of
  22. filler in nano and microcomposites of polypropylene containing calcium carbonate, Materials and Design
  23. (2010) 802-807
  24. Qi-hua Wang, Xin-rui Zhang, Xian-qiang Pei, Study on the friction and wear behavior of basalt
  25. fabric composites filled with graphite and nano-SiO2, Materials and Design 31 (2010) 1403-1409
  26. R.Jones, S.Pitt, D.Hui, A.Brunner, Fatigue crack growth in nano-composites, Composite Structures
  27. (2013) 375-379
  28. Long-Cheng Tang, Hui Zhang, et al, Fracture mechanisms of epoxy based ternary-composites filled
  29. with rigid-soft particles, composites science and technology 72 (2012) 558-565
  30. M.R.Ayatollahi, S.Shadlou, M.M.Shokrieh, Fracture toughness of epoxy/multi-walled carbon
  31. nanotube nano-composites under bending and shear loading conditions, Materials and Design 32 (2011)
  32. -2124
  33. Z.Ahmad, M.P.Ansell, D.Smedley, Epoxy Adhesives Modified with Nano- and Microparticles for In
  34. Situ Timber Bonding: Fracture Toughness Characteristics, Journal of Engineering Materials and
  35. Technology, July 2011, Vol. 133 / 031006-1
  36. Nguyen Tien Phong, Mohammed H. Gabr, et al, Improvement in the mechanical performances of
  37. carbon fiber/epoxy composite with addition of nano(Polyvinyl alcohol) finers, Composite Structures 99 (
  38. 380-387
  39. Daniel R.Bortz, Cesar Merino, Ignacio Martin-Gullon, Carbon nanofibers enhance the fracture
  40. toughness and fatigue performance of a structural epoxy system, Composites Science and Technology 71
  41. (2011) 31-38
  42. Bodo Fiedler, Florian H.Gojny et al, Fundamental aspects of nano-reinforced composites,
  43. Composites Science and Technology 66 (2006) 3115-3125
  44. C.Y.H.Lim, D.K.Leo, J.J.S.Ang, M.Gupta, Wear of magnesium composites reinforced with nanosized
  45. alumina particulates, Wear 259 (2005) 620-625
  46. Yinngguang Liu, Jianqiu Zhou, Tongde Shen, Effect of nano-metal particles on the fracture
  47. toughness on metal-ceramic composite, Materials and Design 45 (2013) 67-71
  48. Emin Ergun, Kubilay Aslantas, Suleyman Tasgetiren, Effect of crack position on stress intensity
  49. factor in particle-reinforced metal-matrix composites, Mechanics Research Communications 35 (2008)
  50. -218
  51. Ali Mazahery, Mohsen Ostad Shabani, Plasticity and microstructure of A356 matrix nano
  52. composites, Journal of King Saud University – Engineering Sciences (2013) 25, 41-48
  53. S.Hotta, D.R.Paul, Nanocomposites formed from linear low density polyethylene and organoclays,
  54. Polymer 45 (2004) 7639-7654
  55. Hyunwoo kim, Shingo Kobayashi et al, Graphene/polyethylene Nanocomposites: Effect of
  56. polyethylene functionalization and blending methods, Polymer 52 (2011) 1837-1846
  57. M.A. Almaadeed, Mabrouk Ouederni, P. Noorunnisa, Effect of chain structure on the properties of
  58. Glass fiber/polyethylene composites, Materials and design 47 (2013) 725-730
  59. Nadir Ayrilmis, AlperenKaymakci, et al, Mechanical performance of composites based on wastes of
  60. polyethylene aluminum lignocellulosics, Composites: Part B 47 (2013) 150-154
  61. J. Morawiec, A. Pawlak, M. Slouf , et al, Preparation and properties of compatibilized
  62. LDPE/organo-modified montmorillonite Nanocomposites, European Polymer Journal 41 (2005) 1115-