The Strength and Stiffness of Aluminium Alloy LM12/ SiC (23 Microns) Metal Matrix Composites and Comparison of Brinell Hardness Test Experimental Results With Axi Symmetricfeanalysis

Authors

  • Suresha P  Assistant Professor, Department of Mechanical Engineering, South East Asian College of Engineering and Technology, K R Puram, Bangalore-560049, Karnataka, India
  • N Chikkanna  Professor & Chairman, Department of Aerospace & Propulsion Technology, Visvesvaraya Institute of Advanced Technologies, VTU, Muddenahalli-562101, Karnataka, India
  • Anil Kumar S kallimani  Assistant Professor, Head of the Department, Mechanical Engineering. Government Engineering College, Huvinahadagali-583219, Karnataka, India

Keywords:

23?mSiC, AALM12, MMC’sFabrication, Brinell hardness number experiment test results comparison with FEA, SEM, EDX and XRD analysis of MMC’s.

Abstract

The aluminum alloy is produces the excellent and superior properties, these alloys are widely uses in different industrial sectors like, agriculture, constructions, aerospace, automobile, utensils, and general engineering industries, due to this alloys are very favorable in microstructure behavior, hardness, less weight ratio, high strength and having good mechanical properties. In this work the aluminum alloy LM12 is the base material reinforced with the silicon carbide. These metal matrix composites are fabricated by using the stir casting techniques with the uniform distribution of SiC and confirmed by using the BHN test, SEM,XRD and EDX analysis. The MMC’s evaluate the mechanical properties such as Brinell hardness number experiment test results are comparison with the BHN Finite element analysis. The FEA model has been prepared by using the ABQUS software evaluate the maximum stress, deformation and load carrying capacity. The MMC’s obtained results are compared with the pure AALM12 alloy without of silicon carbide addition. The reinforced silicon carbide varies with the 0%, 5%, 10%, 15% &20%wt.fraction. Increment of SiC in MMC’s, the Brinell hardness number values also be increases due to matrix is became good in strength and strong, these are the properties are presented in this paper.

References

  1. Channakeshavafracture mechanism of commercial Al-alloys. J.Bull. Material Sci. 28(1), 101-105.
  2. Rohatgi P, Asthana R and Yarandi E (1990)Solidification of metal matrix composites. In: Minerals Metals Materials Soc. pp:51-75.
  3. Qu S, Geng L and Han J (2007) SiC/Al composites fabricated by modified squeeze casting technique. J. Materials Sci. Technol. 23(5), 641-644.
  4. Seleznev ML, Seleznev IL, Cornie JA, Argon AS and Mason RP (1998) Effect of composition, particle size and heat treatment on the mechanical properties of Al- 4.5wt.%Cu based alumina particulate reinforced composites, SAE international congress and exposition, Detroit, MI, Feb 23-26, Paper no. 980700.
  5. Zhou W and Xu ZM (1997) Casting of SiC reinforced metal matrix composites. J. Materials Proc. Technol. 63, 358-363.
  6. Zlaticanin B, Filipovic M, Valcic A, Aleksic R, Nikolic S, Radonjic B and Bosnjak B (2004) The effect of magnesium and titanium addition on the microstructure and properties of as-cast Al-5%Cu alloys. Materiali in Tehnologije. 38, 1-2.
  7. Sijo, M. T. & Jayadevan, K. R. Analysis of stir cast aluminium silicon carbide metal matrixcomposite?: A comprehensive review. Procedia Technol. 24, 379–385 (2016).
  8. A. C. R. Influence of Volume Fraction, Size, Cracking, Clustering of Particulates and Porosity on the Strength and Stiffness of 6063/Sicp Metal Matrix Composites. Int. J. Res. Eng. Technol. 04, 434–442 (2015).
  9. Annual Book of ASTM Standards (1988). Section 3: Metals Test Methods and Analytical Procedures.
  10. Armero F. and Simo J. (1993) A priori stability estimates and unconditionally stable product formula algorithms for non-linear coupled thermoplasticity, International Journal of Plasticity 9, 149-182.
  11. 669+9+11. Bridgman P. (1952) Studies in Large Plastic and Fracture, McGraw-Hill Book Company, London. 12.Celentano D., Gunasegaram D. and Nguyen T. (1999) A thermomechanical model for the analysis of light alloy solidification in a composite mould, International Journal of Solids and Structures, Vol. 36, 2341-2378.
  12. Celentano D. (2001) A large strain solidification of S.G. cast iron in a green sand mould, International Journal of Plasticity 17, 1623-1658.
  13. Coleman B. and Gurtin M. (1967) Thermodynamics with internal state variables, The Journal of Chemical Physics 47 (2), 597-613.
  14. Crisfield M. (1991) Non-linear Finite Element Analysis of Solids and Structures, Vols. 1 and 2. John Wiley & Sons, Chichester.
  15. Jerry, S., Fabian, A. & Selvam, B. Densification behaviour of Aluminium reinforced with Tungsten Carbide particulate Metal Matrix Composite processed by P/M. IOSR J. Mech. Civ. Eng. 24–29 (201).
  16. Y Seo, Y. H. & Kang, C. G. The effect of applied pressure on particle-dispersion characteristics and mechanical properties in melt-stirring squeeze-cast SiCp/Al composites. J. Mater. Process. Tech. 55, 370–379 (1995).14).

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Published

2020-12-15

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Research Articles

How to Cite

[1]
Suresha P, N Chikkanna, Anil Kumar S kallimani, " The Strength and Stiffness of Aluminium Alloy LM12/ SiC (23 Microns) Metal Matrix Composites and Comparison of Brinell Hardness Test Experimental Results With Axi Symmetricfeanalysis , IInternational Journal of Scientific Research in Mechanical and Materials Engineering(IJSRMME), ISSN : 2456-3307, Volume 4, Issue 7, pp.36-45, November-December-2020.