Micro Particles Effect on Mechanical and Thermal Properties of Ceramic Composites - A Review

Particles are the most common and cheapest
reinforcement producing discontinuous reinforced composites with
isotropic properties. Conventional fabrication methods can be used to
produce a wide range of product forms, making them relatively
inexpensive. Optimising composite development must include
consideration of all the fundamental aspect of particles including
their size, shape, volume fraction, distribution and mechanical
properties. Research has shown that the challenges of low fracture
toughness, poor crack growth resistance and low thermal stability can
be overcome by reinforcement with particles. The unique properties
exhibited by micro particles reinforced ceramic composites have
made them to be highly attractive in a vast array of applications.





References:
[1] M. Rosso, “Ceramic and Metal Matrix Composites: Route and
Properties,’’ Journal of Materials Processing Technology, 175, 2006,
pp. 364–375.
[2] M.S. Ranđelović, A.R. Zarubica, and M.M. Purenović, “New Composite
Materials in the Technology for Drinking Water Purification from Ionic
and Colloidal Pollutants. http://cdn.intechopen.com/pdfs-wm/38404.pdf,
2012, pp. 273-300.
[3] S. Siddika, F. Mansura, and M. Hasan, “Physico-Mechanical Properties
of Jute-Coir Fiber Reinforced Hybrid Polypropylene Composites,’’
World Academy of Science, Engineering and Technology, 73, 2013, pp.
1145-1149.
[4] O. Faruk, K. Andrzej, B.H.P. Fink, and M. Sain, “Bio-composites
reinforced with natural fibers: 2000–2010,” Elsevier, Progress in
Polymer Science, 37, 2012, pp. 1552–1596.
[5] F.C. Campbell, ‘‘Structural Composite Materials,’’ Ohio: ASM
International, 2010.
[6] V.V. Krstic, P.S. Nicholson, and R.G. Hoagland, “Toughening of
Glasses by Metallic Particles,” J. Am. Cer. Soc., 64(9), 1981, pp. 499–
504.
[7] V.D. Krstic, ‘‘Fracture of Brittle-Matrix/Ductile- Particle
Composites,’’ Phil Mag A - Physics of Condensed Matter Structure
Defects and Mechanical Properties, 48(5), 1983, pp. 695-708.
[8] J. Wang, C.B. Ponton, and P.M. Marquis, “Silver-Toughened Alumina
Ceramics,” Br. Ceram. Trans., 92, 1993, pp. 67-74.
[9] L. Wang, J.L. Shi, M.T. Lin, H.R. Chen, and D.S. Yan, “Thermal Shock
Behaviour of Alumina-Copper Composite,” Mat. Res., Bull.36, 2001,
pp. 925– 932.
[10] D. Kopeliovich, “Classification of Composite Materials,” Last Modified:
2012/06/02 by dmitri_kopeliovich. http://www.substech.com 2012.
[11] D. Sujit, “The Cost of Automotive Polymer Composites,” A Review and
Assessment of Doe's Lightweight Materials Composites Research,
Ornl/tm-2000/283, 2001.
[12] Y. Nivas, and R.M. Fulrath, “Limitation of Griffith Flaws in Glass
Matrix Composites,’’ J. Am. Cer. Soc., 53(4), 1970, pp. 188-191.
[13] D.T. Rankin, J.J. Stiglich, D.R. Petrak, and R. Ruh, ‘‘ Hot-Pressing and
Mechanical Properties of Al2O3 with a Mo-Dispersed Phase,’’ J. Am.
Cer. Soc., 54(6), 1971, pp. 277-281.
[14] P. Hing, and G.W. Groves, “Strength and Fracture Toughness of
Polycrystalline Magnesium Oxide Containing Metallic Particles and
Fibers,” J. Mater. Sci., 7, 1972, pp. 427-434.
[15] W.H. Tuan, and W.R. Chen, ‘‘Mechanical Properties of Alumina
Zirconia-Silver composites,’’ J. Am. Ceram. Soc., 78, 1995, pp. 465-
469.
[16] R.Z. Chen, and W.H. Tuan, ‘‘Toughening Alumina with Silver and
Zirconia Inclusions,’’ J. Eur. Ceram. Soc., 21, 2001, pp. 2887- 2893.
[17] I. Dlouhy, M. Reinisch, A.R. Boccaccini, and J.F. Knott, ‘‘Fracture
Characteristics of Borosilicate Glasses Reinforced by Metallic
Particles,” Fatigue & Fracture of Engineering Materials & Structures,
20, 1997, pp. 1235-1253.
[18] G. Banuprakash, V. Katyal, V.S.R. Murthy, and G.S. Murty,
‘‘Mechanical Behaviour of Borosilicate Glass-Copper Composites,’’
Composites Part A - Applied Science and Manufacturing, 28, 1997, pp.
861-867.
[19] A.K. Dutta, A.B. Chattopadhyaya, and K.K. Ray, “Progressive Flank
Wear and Machining Performance of Silver Toughened Alumina
Cutting Tool Inserts,’’ Wear, 261, 2006, pp. 885-895.
[20] G. de-Portu, S. Guicciardi, C. Melandri, and F. Monteverde, ‘‘Wear
Behaviour of Al2O3–Mo and Al2O3–Nb Composites,’’ Wear, 262, 2007,
pp. 1346–1352.
[21] M. Aldridge, and J.A. Yeomans, ‘‘Thermal Shock Behaviour of Iron
Particle-Toughened Alumina,’’ J. Am. Ceram.Soc., 84 (3), 2001, pp.
603-607.
[22] Y. Ji, and J.A. Yeomans, ‘‘Microstructure and Mechanical Properties of
Chromium and Chromium/Nickel Particulate Reinforced Alumina
Ceramics,’’ J. Mat. Sci., 37, 2002, pp. 5229- 5236.
[23] J. Lalande, S, Scheppokat, R. Janssen, and N. Claussen, ‘‘Toughening of
Alumina/Zirconia Ceramic Composites with Silver Particles,’’ J. Eur.
Ceram., Soc., 22, 2002, pp. 2165-2171.
[24] W. Weglewski, M. Basista, M. Chmielewski, and K.Pietrzak,
‘‘Modeling of Thermally Induced Damage in The Processing of Cr–
Al2O3 composites,’’ Composites Part B: Engineering, 43, 2, 2012, pp.
255.
[25] O. Sbaizero, and G. Pezzotti, ‘‘Influence of the Metal Particle Size on
Toughness of Al2O3-Mo Composite,’’ Acta. Materialia, 48, 2000, pp.
985-992.
[26] L. Jia, G. Hong-Yu, S. Rui-Xia, Y. Yan-Sheng, ‘‘Rising Crack-Growth-
Resistance Behaviour of Al2O3 Based Composites Toughened with
Fe3Al Intermetallic,’’ Elsevier, Ceramics International 33, 2007, pp.
811–814.
[27] S. Hussain, I. Barbariol, S. Roitti, and O. Sbaizero, ‘‘Electrical
Conductivity of an Insulator Matrix (Alumina) and Conductor Particle
(Molybdenum) Composites,’’ J. Eur. Ceram. Soc., 23, 2003, pp. 315-
321.
[28] Z.H. Jin, and R.C. Batra, ‘‘Thermal Shock Cracking in A Metal Particle-
Reinforced Ceramic Matrix Composite,’’ Engineering Fracture
Mechanics, 62, 1999, pp. 339-350.