Research paper

Effect of Bagasse ash reinforcement on the wear behaviour of Al-Cu-Mg/Bagasse ash particulate composites

  • DAI Qiang-Wei ,
  • HASSAN ,
  • AUSE ,
  • NYIOR
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  • Department of Metallurgical and Materials Engineering, Ahmadu Bello University, Samaru, Zaria, Nigeria

Received date: 2009-11-23

  Revised date: 2010-01-28

  Online published: 2010-04-08

Abstract

The effect of Bagasse ash (BAp) particle reinforcement on the wear behavior of Al-Cu-Mg alloy has been studied.  Bagasse ash particles were varied from 0 wt pct-10 wt pct with interval of 2 wt pct. Unlubricated pin-on disc tests were conducted to examine the wear behaviour of the aluminium alloy/Bagasse ash particulate composites. The tests were conducted at varying loads, from 5 to 20 N and sliding speeds of 1.26 m/s, 2.51 m/s , 3.77 m/s and 5.02 m/s for a constant sliding distance of 5000 m. The results showed that the wear rates of the Al-Cu-Mg/BAp composites are lower than that of the matrix alloy and further decrease with increasing Bagasse ash content. Wear rate increases as the sliding speed and applied load increase. The microstructure of the worn surface revealed that a large amount of plastic deformation appeared on the surface of the unreinforced alloy. While Bagasse ash reinforced Al-Cu-Mg alloy showed worn out surface that is not smooth, and grooves, scratches and parallel lines were observed. A combination of adhesion and delamination wear was in operation. These results show that improve wear properties is achievable for the aluminium alloy by the addition of Bagasse ash particles as reinforcement material.

Cite this article

DAI Qiang-Wei , HASSAN , AUSE , NYIOR . Effect of Bagasse ash reinforcement on the wear behaviour of Al-Cu-Mg/Bagasse ash particulate composites[J]. Acta Metallurgica Sinica (English Letters), 2010 , 23(2) : 81 -89 . DOI: 10.11890/1006-7191-102-81

References

[1] V.S. Aigbodion and S.B. Hassan,  J Mater Sci Eng A  447  (2007) 355.
[2] E. Bayraktar, J. Masounave, R. Caplain and C. Bathias, JAMME  31(2)  (2008) 294.
[3] J. Bienia, M. Walczak, B. Surowska and J. Sobczaka, J Optoelectron Adv Mater  5(2)  (2003) 493.
[4] K. Ganesan, K .Rajagopal and K. Thangavel,  Anti Corrosion Methods Mater 54(4)  (2007) 230.
[5] V.S. Aigbodion,  PhD Dissertation  (Ahmadu Bello University, Samaru, Zaria, Nigeria, 2008).
[6] K. Radhakrishna and K.V. Mahedra,  Mater Sci Poland  25(1)  (2007)  34.
[7] A.P. Sinon and H.J. Rack,  Wear   189  (1995)1.
[8] R.L. Dauis, S.C. Subramanian and J.M. Yellup,  Wear 201  (1996) 132.
[9] J.T. Al-Haidary and A.S. Jabur Al-Kaaby,  Mater Sci Poland  25(1)  (2007) 155.
[10] S.C. Lim, M. Gupta, L. Ren and J.K.M. Kwok,  J Mater Process Technol  89-90  (1999) 591.
[11] S.B. Hassan and  V. S Aigbodion,  J Alloy Compd  491  (2010) 571.
[12] S. Basavarajappa, G. Chandramohan, R. Subramanian and A.Chandrasekar,  Mater  Sci Poland  24(2)  (2006) 357.
[13] A. Vencl, A. Rac, I. Bobic and Z. Miskovic,  Tribology in Ind  28(1-2)  (2006) 27.
[14] T.W. Jacobson, J. Liu, C.K. Yao,  Wear   184 (1995) 187.
[15] P.K. Mukundadas, S. Kanakuppi, P.P. Satyappa and B.Gundenahalli,  Mater Sci  12(3)  (2006) 209.
[16]  A. Sato and R. Methrabian,  J Metall Trans  7B (1976) 443.
[17] F. Hosking, F. Folgar and R. Wunderlin,  J Mater Sci 17  (1982) 477.
[18] P. Rohatgi and M. Surappa,  J Mater Sci  16 (1989) 983.
[19] K.M. Shorowordi, A.S. Haseeb and M.A. Celis,  Wear 256  (2004) 1176.

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