Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites

In order to optimize the functionality of magnesium, a modest attempt has been made to develop magnesium hybrid composites incorporating of synthesis micro and nano size fillers. Commercially pure magnesium (Mg) reinforced with (i) 10 wt.% micro-sized silicon carbide (SiC) particles (ii) combination...

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Main Author:	Tee, Zhen Wei
Format:	Thesis
Language:	English English
Published:	2016
Subjects:	T Technology (General)
Online Access:	http://eprints.utem.edu.my/id/eprint/18608/1/Dry%20Sliding%20Wear%20And%20Friction%20Behavior%20Of%20Silicon%20Carbide%20And%20Multi%20Wall%20Carbon%20Nanotubes%20Reinforced%20Magnesium%20Matrix%20Hybrid%20Composites%2024%20Pages.pdf http://eprints.utem.edu.my/id/eprint/18608/2/Dry%20Sliding%20Wear%20And%20Friction%20Behavior%20Of%20Silicon%20Carbide%20And%20Multi%20Wall%20Carbon%20Nanotubes%20Reinforced%20Magnesium%20Matrix%20Hybrid%20Composites.pdf
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institution	Universiti Teknikal Malaysia Melaka
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language	English English
topic	T Technology (General) T Technology (General)
spellingShingle	T Technology (General) T Technology (General) Tee, Zhen Wei Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites
description	In order to optimize the functionality of magnesium, a modest attempt has been made to develop magnesium hybrid composites incorporating of synthesis micro and nano size fillers. Commercially pure magnesium (Mg) reinforced with (i) 10 wt.% micro-sized silicon carbide (SiC) particles (ii) combination of 10 wt.% micro-sized silicon carbide (SiC) particles and 1 wt.% multi-walled carbon nanotubes (MWCNTs), respectively, were synthesized via powder metallurgy route followed by hot extrusion. After the specimen preparation, microstructural characterization studies were conducted to determine the distribution of reinforcement, grain morphology, and presence of porosity by using Optical Microscope, Scanning Electron Microscope and Field Emission Scanning Electron Microscopy. Density and porosity measurements were carried out accordance with Archimedes’ principle. Micro-Vickers Test was also carried out to investigate the hardness of material. The dry sliding tests were performed using a pin-on-disc tester against a grey cast iron counterbody under two applied normal loads (5, 10, 20, 40 N) with four sliding speeds (0.5, 1.5, 3.5, 4.5 m/s) corresponding to a constant sliding distance of 5000 m to identify the wear rate and coefficient of friction of magnesium composite. The morphology of the worn pin surfaces and collected wear debris were examined using Scanning Electron Microscope. Throughout this work, reasonably uniform distribution of SiC particulates and MWCNTs in magnesium matrix were observed. Low porosity (below 2.0 %) was obtained which indicated the suitability of the processing parameters. The Vickers hardness of all the hierarchical magnesium composite configurations are significantly higher than the pure magnesium. Wear rate for both unreinforced magnesium and its composite increased with increasing load but the incorporation of micro and nano size fillers reduced the wear rate of magnesium particularly at loads of 5, 10, 20 N. The sliding speed increment induced higher wear on magnesium composites. However, at the highest load of 40 N, a crossover in wear rate was observed with the increased in sliding speeds, i.e., at sliding speed of 1.5 m/s the wear rate of the composite higher than unreinforced magnesium, but the incorporation of SiC and MWCNTs shifts to minimize the wear rate at sliding speeds of 3.5 and 4.5 m/s respectively. There is a small reduction in the coefficient of friction for Mg/SiC/MWCNTs composite as compared to Mg/SiC particularly at low loads of 5, 10, 20 N as the sliding speed increased but the change of coefficient of friction among different materials become insignificant at high load of 40 N. Five wear mechanisms mostly operated in combination namely abrasion, adhesion, oxidation, delamination and plastic deformation have been observed in various sliding conditions. Such modify hybrid approach may bring significant implications on application particularly in automotive and aviation sectors. These would become as another material option to further improve the fuel efficiency as well as service life of components.
format	Thesis
qualification_name	Master of Philosophy (M.Phil.)
qualification_level	Master's degree
author	Tee, Zhen Wei
author_facet	Tee, Zhen Wei
author_sort	Tee, Zhen Wei
title	Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites
title_short	Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites
title_full	Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites
title_fullStr	Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites
title_full_unstemmed	Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites
title_sort	dry sliding wear and friction behavior of silicon carbide and multi wall carbon nanotubes reinforced magnesium matrix hybrid composites
granting_institution	Universiti Teknikal Malaysia Melaka
granting_department	Faculty of Manufacturing Engineering
publishDate	2016
url	http://eprints.utem.edu.my/id/eprint/18608/1/Dry%20Sliding%20Wear%20And%20Friction%20Behavior%20Of%20Silicon%20Carbide%20And%20Multi%20Wall%20Carbon%20Nanotubes%20Reinforced%20Magnesium%20Matrix%20Hybrid%20Composites%2024%20Pages.pdf http://eprints.utem.edu.my/id/eprint/18608/2/Dry%20Sliding%20Wear%20And%20Friction%20Behavior%20Of%20Silicon%20Carbide%20And%20Multi%20Wall%20Carbon%20Nanotubes%20Reinforced%20Magnesium%20Matrix%20Hybrid%20Composites.pdf
_version_	1747833942108536832
spelling	my-utem-ep.186082022-02-16T12:43:41Z Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites 2016 Tee, Zhen Wei T Technology (General) TA Engineering (General). Civil engineering (General) In order to optimize the functionality of magnesium, a modest attempt has been made to develop magnesium hybrid composites incorporating of synthesis micro and nano size fillers. Commercially pure magnesium (Mg) reinforced with (i) 10 wt.% micro-sized silicon carbide (SiC) particles (ii) combination of 10 wt.% micro-sized silicon carbide (SiC) particles and 1 wt.% multi-walled carbon nanotubes (MWCNTs), respectively, were synthesized via powder metallurgy route followed by hot extrusion. After the specimen preparation, microstructural characterization studies were conducted to determine the distribution of reinforcement, grain morphology, and presence of porosity by using Optical Microscope, Scanning Electron Microscope and Field Emission Scanning Electron Microscopy. Density and porosity measurements were carried out accordance with Archimedes’ principle. Micro-Vickers Test was also carried out to investigate the hardness of material. The dry sliding tests were performed using a pin-on-disc tester against a grey cast iron counterbody under two applied normal loads (5, 10, 20, 40 N) with four sliding speeds (0.5, 1.5, 3.5, 4.5 m/s) corresponding to a constant sliding distance of 5000 m to identify the wear rate and coefficient of friction of magnesium composite. The morphology of the worn pin surfaces and collected wear debris were examined using Scanning Electron Microscope. Throughout this work, reasonably uniform distribution of SiC particulates and MWCNTs in magnesium matrix were observed. Low porosity (below 2.0 %) was obtained which indicated the suitability of the processing parameters. The Vickers hardness of all the hierarchical magnesium composite configurations are significantly higher than the pure magnesium. Wear rate for both unreinforced magnesium and its composite increased with increasing load but the incorporation of micro and nano size fillers reduced the wear rate of magnesium particularly at loads of 5, 10, 20 N. The sliding speed increment induced higher wear on magnesium composites. However, at the highest load of 40 N, a crossover in wear rate was observed with the increased in sliding speeds, i.e., at sliding speed of 1.5 m/s the wear rate of the composite higher than unreinforced magnesium, but the incorporation of SiC and MWCNTs shifts to minimize the wear rate at sliding speeds of 3.5 and 4.5 m/s respectively. There is a small reduction in the coefficient of friction for Mg/SiC/MWCNTs composite as compared to Mg/SiC particularly at low loads of 5, 10, 20 N as the sliding speed increased but the change of coefficient of friction among different materials become insignificant at high load of 40 N. Five wear mechanisms mostly operated in combination namely abrasion, adhesion, oxidation, delamination and plastic deformation have been observed in various sliding conditions. Such modify hybrid approach may bring significant implications on application particularly in automotive and aviation sectors. These would become as another material option to further improve the fuel efficiency as well as service life of components. UTeM 2016 Thesis http://eprints.utem.edu.my/id/eprint/18608/ http://eprints.utem.edu.my/id/eprint/18608/1/Dry%20Sliding%20Wear%20And%20Friction%20Behavior%20Of%20Silicon%20Carbide%20And%20Multi%20Wall%20Carbon%20Nanotubes%20Reinforced%20Magnesium%20Matrix%20Hybrid%20Composites%2024%20Pages.pdf text en public http://eprints.utem.edu.my/id/eprint/18608/2/Dry%20Sliding%20Wear%20And%20Friction%20Behavior%20Of%20Silicon%20Carbide%20And%20Multi%20Wall%20Carbon%20Nanotubes%20Reinforced%20Magnesium%20Matrix%20Hybrid%20Composites.pdf text en validuser https://plh.utem.edu.my/cgi-bin/koha/opac-detail.pl?biblionumber=100901 mphil masters Universiti Teknikal Malaysia Melaka Faculty of Manufacturing Engineering 1. Abachi, P., Masoudi, A., and Purazrang, K., 2006. Dry Sliding Wear Behavior of SiCp/QE22 Magnesium Alloy Matrix Composites. Materials Science and Engineering, 435–436, pp. 653 - 657. 2. Agarwal, A., Bakshi, S.R., and Lahiri, D., 2011. Carbon Nanotubes Reinforced Metal Matrix Composite., Boca Raton: CRC Press. 3. Alam, M.E., Han, S., Nguyen, Q.B., Hamouda, A.M.S., and Gupta, M., 2011. Development of New Magnesium Based Alloys and Their Nanocomposites. Journal of Alloys and Compounds, 34 (509), pp. 8522 - 8529. 4. Al-Qutub, A.M., Khalil, A., Saheb, N., and Hakeem. A.S., 2013. Wear and Friction Behavior of Al6061 Alloy Reinforced with Carbon Nanotubes. Wear, 1 - 2 (297), pp. 752 - 761. 5. American Society for Testing and Materials, 2003. ASTM B331 – 95: Standard Test Method for Compressibility of Metal Powders in Uniaxial Compaction. West Conshohocken: ASTM International. 6. American Society for Testing and Materials, 2003. ASTM B962 - 08: Standard Test Methods for Density of Compacted or Sintered Powder Metallurgy (PM) Products Using Archimedes Principle. West Conshohocken: ASTM International. 116 7. American Society for Testing and Materials, 2003. ASTM E384 – 99: Standard Test Method for Microindentation Hardness of Materials. West Conshohocken: ASTM International. 8. American Society for Testing and Materials, 2003. ASTM G40 – 93: Standard Terminology Relating to Erosion and Wear. West Conshohocken: ASTM International. 9. American Society for Testing and Materials, 2003. ASTM G99 - 05: Standard Test Method for Wear Testing with a Pin-on-Disk Apparatus. West Conshohocken: ASTM International. 10. Angelo, P.C., and Subramanian, R., 2008. Powder Metallurgy Science, Technology and Applications., New Delhi: Prentice-Hall of India 11. Archard, J.F., 1953. Contact and Rubbing of Flat Surfaces. Journal of Applied Physics, 8 (24), pp. 981 - 988. 12. Babu, J.S.S., Kang, C.G., and Kim, H.H., 2011. Dry Sliding Wear Behavior of Aluminum based Hybrid Composites with Graphite Nanofiber–Alumina Fiber. Materials and Design, 7 (32), pp. 3920 - 3925. 13. Barbero, E.J., 2011. Introduction to Composite Materials Design, 2nd ed., Boca Raton: CRC Press. 14. Bastwros, M.M.H., Esawi, A.M.K., and Wifi, A., 2013. Friction and Wear Behavior of Al–CNT Composites. Wear, 1 -2 (307), pp. 164 - 173. 117 15. Bayer, R.G., 2004. Mechanical Wear Fundamentals and Testing, Second Edition Revised and Expanded., New York: Marcel Dekker. 16. Cafri, M., Dilman, H., Dariel, M.P., and Frage, N., 2012. Boron Carbide/Magnesium Composites: Processing, Microstructure and Properties. Journal of the European Ceramic Society, 12 (32), pp. 3477 - 3483. 17. Chawla, N., and Chawla, K.K., 2006. Metal Matrix Composites., New York: Springer Science. 18. Choi, H.J., Lee, S.M., and Bae, D.H., 2010. Wear Characteristic of Aluminum-Based Composites Containing Multi-Walled Carbon Nanotubes. Wear, 1 - 2 (270), pp. 12 - 18. 19. Choudhary, V., and Gupta., A., 2011. Polymer/Carbon Nanotube Nanocomposites. [online] Available at: http://www.intechopen.com/book/carbon nanotubes polymer nanocomposites/polymer-carbon-nanotube-nanocomposites [Accessed on 7 May 2014]. 20. Capek, J., Vojtech, D., 2012. Properties of porous magnesium prepared by powder metallurgy. Materials Science and Engineering, 1 (33), pp. 564–569. 21. Datta, B.K., 2012. Powder Metallurgy An Advanced Technique of Processing Engineering materials, Eastern Economy Edition., New Delhi: Prentice-Hall of India 118 22. Deng, K.K., Wu, K., Wu, Y.W., Nie, K.B., and Zheng, M.Y., 2010. Effect of Submicron Size SiC Particulates on Microstructure and Mechanical Properties of AZ91 Magnesium Matrix Composites. Journal of Alloys and Compounds, 2 (504), pp. 542 - 547. 23. Dieringa, H., 2011. Properties of Magnesium Alloys Reinforced With Nanoparticles and Carbon Nanotubes: A Review. J Mater Sci, 2 (46), pp. 289 - 306. 24. Dudina, D.V., Georgarakis, K., Li, Y., Aljerf, M., LeMoulec, A., and Yavari, A.R., 2009. A Magnesium Alloy Matrix Composite Reinforced With Metallic Glass. Composites Science and Technology, 15 - 16 (69), pp. 2734 - 2736. 25. Esawi, A.M.K., Morsi, K., Sayed, A., Taher, M., and Lanka, S., 2010. Effect of Carbon Nanotube (CNT) Content on the Mechanical Properties of CNT-Reinforced Aluminium Composites. Composites Science and Technology, 16 (70), pp. 2237 - 2241. 26. Evans, A., Marchi, S.C., and Mortensen, A., 2003. Metal Matrix Composites in Industry An Introduction and a Survey., London: Kluwer Academic Publishers. 27. Falcon-Franco, L., Bedolla-Becerril, E., Lemus-Ruiz, J., Gonzalez-Rodríguez, J.G., Guardian, R., and Rosales, I., 2011. Wear Performance of TiC as Reinforcement of a Magnesium Alloy Matrix Composite.Composites. B (42), pp. 275 - 279. 28. Friedrich, H.E., and Mordike, B.L., 2006. Magnesium Technology: Metallurgy, Design Data, Applications., Heidelberg: Springer Science & Business Media. 119 29. Fukuda, H., Kondoh, K., Umeda, J., and Fugetsu, B., 2011. Interfacial Analysis Between Mg Matrix and Carbon Nanotubes in Mg–6 wt.% Al Alloy Matrix Composites Reinforced with Carbon Nanotubes. Composites Science and Technology, 71, pp. 705 - 709. 30. Gadermayr, M., Maier, Andreas., and Uhl, A., 2012. Robust Algorithm for Automated Microindentation Measurement in Vickers Hardness Testing. Journal of Electronic Imaging, 2 (2), pp. 295 - 300. 31. German, R.M., 1996. Sintering Theory and Practice., New York: Jon Wiley & Sons. 32. Ghosh, S.K., Saha, P., and Kishore, S., 2010. Influence of Size and Volume Fraction of SiC Particulates on Properties of Ex Situ Reinforced Al–4.5Cu–3Mg Metal Matrix Composite Prepared by Direct Metal Laser Sintering Process. Materials Science and Engineering, 18 - 19 (527), pp. 4694 - 4701. 33. Girish, B.M., Satish, B.M., Sarapure, S., Somashekar, D.R., and Basawaraj., 2014. Wear Behavior of Magnesium Alloy AZ91 Hybrid Composite Materials. Tribology Transactions, 3 (25), pp. 73 - 79. 34. Goh, C.S., Wei, J., Lee, L.C., and Gupta, M., 2007. Properties and Deformation Behavior of Mg – Y2O3 nanocomposites. Acto materialia, 55 (15), pp. 5115 - 5121. 35. Goh, C.S., Wei, J., Lee, L.C., and Gupta, M., 2008. Development of Novel Carbon Nanotubes Reinforced Magnesium Nanocomposites Using Powder Metallurgy Technique. SIMTech Technical Reports, 9 (3), pp. 130 - 135. 120 36. Gu, h., Zhang, X., Qiu, Y., and Gu, M., 2005. Damping Behaviors of Magnesium Matrix Composites Reinforced with Cu-Coated and Uncoated SiC Particulates. Composites Science and Technology, 11 - 12 (65), pp. 1736 - 1742. 37. Guleryuz, L.F., Ozan, S., Uzunsoy, D., and Ipek, R., 2013. Investigation of Dry Sliding Wear Behaviour of B4C Particulate Reinforced Mg Matrix Composites. Acta Physica Polonica, 2 (123), pp. 488 - 489. 38. Gupta, M., and Srivatsan, T.S., 1999. Microstructure and Grain Growth Behavior of an Aluminum Alloy Metal Matrix Composite Processed by Disintegrated Melt Deposition. Journal of Materials Engineering and Performance, 8 (4), pp. 473 - 478. 39. Habibi, M.K., Paramsothy, M., Hamouda, A.M.S., and Gupta, M., 2011. Using Integrated Hybrid (Al + CNT) Reinforcement to Simultaneously Enhance Strength and Ductility of Magnesium. Composites Science and Technology, 5 (71), pp. 734 - 741. 40. Habibnejad-Korayem,M., Mahmudi, R., Ghasemi, H.M., andPoole, W. J., 2010. Tribological Behavior of Pure Mg and AZ31 Magnesium Alloy Strengthened by Al2O3Nano-Particles. Wear, 3 - 4 (268), pp. 405 - 412. 41. Harish, K.G., Ketan, V., Alakesh, M., Rajesh, K., 2012. Hybrid Metal Matrix Composites and further improvement in their machinability- A Review. International Journal of Latest Research in Science and Technology, 1 (1), pp. 36-44. 121 42. Hassan, A.M., Alrashdan, A., Hayajneh, M., and Mayyas, A.T., 2009. Wear Behavior of Al-Mg-Cu based Composites Containing SiC Particles. Tribology International, 8 (42), pp. 1230 - 1238. 43. Hassan, S.F., and Gupta, M., 2002a. Development of Ductile Magnesium Composite Materials Using Titanium as Reinforcement. Journal of Alloys and Compounds, 1 - 3 (345), pp. 246 - 251. 44. Hassan, S.F., and Gupta, M., 2002b. Development of a Novel Magnesium/ Nickel Composite With Improved Mechanical Properties. Journal of Alloys and Compounds, 1 - 2 (335), pp. 10 - 15. 45. Hassan, S.F., Gupta, M., 2006. Effect of type of primary processing on the microstructure, CTE and mechanical properties of magnesium/alumina nanocomposites. Composite Structures, 72 (1), pp. 19–26. 46. Hong, Y., Xiaowu, H., Qiao, N., and Lei, C., 2011. Aging Behavior of Nano-SiCp Reinforced AZ61 Magnesium Matrix Composites. Research & Development, 3 (8), pp. 269 - 205. 47. Hutchings, I.M., 1992. Tribology: Friction and Wear of Engineering Materials., London: Edward Arnold. 122 48. ICCT, 2013. Reducing CO2 and Fuel Consumption From New Cars: Assessing The Near-Term Technology Potential in the EU: The Inernational Council on Clean Transportation, Beijing. 49. Idris, J., Tan, J.C., and Chang. C.W., 2001. The Development of Advanced Materials - High Performance Properties of Composite for Automotive and Aerospace Applications. Pertanika Journal of Science and Techno Supplement, 9 (2), pp. 149 - 158. 50. International Energy Agency, 2011. CO2 Emissions From Fuel Combustion Highlights. 51. John, J.G., 2009. Chemistry and Physics of Mechanical Hardness., Southern Gate: John Wiley & Sons, Inc. 52. Kainer, K.U., 2003. Magnesium - Alloys and Technologies., Geesthacht: Wiley-VCH GmbH & Co. KGaA. 53. Kainer, K.U., 2006. Metal Matrix Composites Custom-made Materials for Automotive and Aerospace Engineering., Geesthacht: Wiley-VCH GmbH & Co. KGaA 54. Kaw, A.K., 2006. Mechanics of Composite Materials, Second Edition., New York: CRC Press. 55. Kim, I.Y., Lee, J.H., Lee, G.S., Baik, S.H., Kim, Y.J., and Lee, Y.Z., 2009. Friction and Wear Characteristics of the Carbon Nanotube - Aluminum Composites with Different Manufacturing Conditions. Wear, 1 - 4 (267), pp. 593 - 598. 123 56. Komander, J. K., 2009. An Approuch to Modeling the Cost-Strength-Weight Trade off in Aluminum and Magnesium Extrusions for Automotive Application Massachusetts Institute of Technology. Bachelor Thesis, Massachusetts Institute of Technology. 57. Kondoh, K., Threrujirapapong, T., Imai, H., Umeda, J., and Fugets, U.B., 2009. Characteristics of Powder Metallurgy Pure Titanium Matrix Composite Reinforced with Multi-Wall Carbon Nanotubes. Composites Science and Technology, 7 - 8 (69), pp. 1077 - 1081. 58. Kumar, S., and Balasubramanian, V., 2009. Effect of Reinforcement Size and Volume Fraction on the Abrasive Wear Behaviour of AA7075Al/SiCp P/M Composites—A Statistic Alanalysis. Tribology International, 43, pp. 414 - 422. 59. Lan, J., Yang, Y., and Li, X., 2004. Microstructure and Microhardness of SiC Nanoparticles Reinforced Magnesium Composites Fabricated by Ultrasonic Method. Materials Science and Engineering, 1 - 2 (386), pp. 284 - 290. 60. Li, Q., Viereckl, A., Rottmair, C.A., and Singer, R.F., 2009. Improved Processing of Carbon Nanotube/Magnesium Alloy Composites. Composites Science and Technology, 7 – 8 (69), pp. 1193 - 1199. 61. Liao, J., and Tan, M.J., 2011. Mixing of Carbon Nanotubes (CNTs) and Aluminum Powder for Powder Metallurgy Use. Powder Technology, 1 (208), pp. 42 - 48. 124 62. Lim, C.Y.H., Leo, D.K., Ang, J.J.S., and Gupta, M., 2005. Wear of Magnesium Composites Reinforced with Nano-Sized Alumina Particulates. Wear, 1 - 6 (259), pp. 620 - 625. 63. Lim, C.Y.H., Lim, S.C., and Gupta, M., 2003. Wear Behaviour of SiCp-Reinforced Magnesium Matrix Composites. Wear, 1 - 6 (255), pp. 629 - 637. 64. Liu, R., Cao, W., Fan, T., Zhang, C., and Zhang, D., 2010. Development of Processing Maps for 3 vol.% TiCp/AZ91D Composites Material. Materials Science and Engineering, 18 - 19 (527), pp. 4687 - 4693. 65. Mallick, P.K. (2008). Fiber-Reinforced Composites, Materials, Manufacturing, and design., New York: CRC Press. 66. Mathhews, F.L., and Rawlings, R.D. (1999). Composite Materials, Engineering and Science., Cambridge : Woodhead Publishing. 67. Mazumdar, S.K., 2002. Composites Manufacturing, Materials, Product, and Process Engineering., New York: CRC Press. 68. Mehta, D.S., Masood, S.H., and Song, W.Q., 2004. Investigation of Wear Properties of Magnesium and Aluminum Alloys for Automotive Applications. Journal of Materials Processing Technology, 2 (155 - 156), pp. 1526 - 1531. 125 69. Merck., 2004. Magnesium Powder: Material Safety Data Sheet. [online] Available at: http://www.merck.com/searchresults/search.html?strSearchTerm=magnesium+&x=0&y=0 [Accessed on 20 February 2013]. 70. Miracle, D. B., 2005. Metal matrix composites – From science to technological significance. Composites Science and Technology, 65 (15-16), pp. 2526–2540. 71. Mondal, A.K., and Kumar, S., 2009. Dry Sliding Wear Behaviour of Magnesium Alloy Based Hybrid Composites in the Longitudinal Direction. Wear, 1 - 4 (267), pp. 458 - 466. 72. Mondal, A.K., Rao, B.S.S.C., and Kumar, S., 2007. Wear Behaviour of AE42+20% Saffil Mg-MMC. Tribology International, 2 (40), pp. 290 - 296. 73. Mordike, B.L., and Ebert, T., 2001. Magnesium Properties - applications – potential. Materials Science and Engineering, 1 (302), pp. 37 - 45. 74. Nanostructured and Amorphous Materials., 2012. Industrial-Grade Multi-Walled Carbon Nanotubes: Material Safety Data Sheet. [online] Available at: http://www.nanoamor.com/carbon_nanotubes nanofibers graphene [Accessed on 20 February 2013]. 75. Neubauer, E., Kitzmantel, M., Hulman, M., and Angerer, P., 2010. Potential and Challenges of Metal-Matrix-Composites Reinforced With Carbon Nanofibers and Carbon Nanotubes. Composites Science and Technology, 16 (70), pp. 2228 - 2236. 126 76. Nie, K.B., Wang, X.J., Xu, L., Wu, K., Hu, X.S., and Zheng, M.Y., 2012. Influence of Extrusion Temperature and Process Parameter on Microstructures and Tensile Properties of a Particulate Reinforced Magnesium Matrix Nanocomposite. Materials and Design, 36, pp. 199 - 205. 77. Nie, K.B., Wang, X.J., Xua, L., Wu, K., Hu, X.S., and Zheng, M.Y., 2012. Effect of Hot Extrusion on Microstructures and Mechanical Properties of SiC Nanoparticles Reinforced Magnesium Matrix Composite. Journal of Alloys and Compounds, 1 (512), pp. 355 - 360. 78. Nigues, A., Siria, A., Vincent, P., Poncharal, P., and Bocquet, L., 2014. Ultrahigh Interlayer Friction in Multiwalled Boron Nitride Nanotubes. Nature Materials, 13, pp. 688 - 693. 79. Pakdel, A., and Farhangi, H., 2009. Infuence of Extrusion Ratio on the Mechanical Behavior of AA6061/SiC Compsites. The Arabian Journal for Science and Engineering, 1c (34), pp. 167-174. 80. Paramsothy, M., Chan, J., Kwok, R., and Gupta, M., 2011. Addition of CNTs to Enhance Tensile/Compressive Response of Magnesium Alloy ZK60A. Composites, 2 (42), pp. 180 - 188. 81. Paramsothy, M., Tan, X.H., Chan, J., Kwok, R., and Gupta, M., 2012. Al2O3 Nanoparticle Addition to Concentrated Magnesium Alloy AZ81: Enhanced ductility. Journal of Alloys and Compounds, 545, pp. 12 - 18. 127 82. Paramsothy, M., Tan, X.H., Chan, J., Kwok, R., and Gupta, M., 2013. Carbon Nanotube Addition to Concentrated Magnesium Alloy AZ81: Enhanced Ductility with Occasional Significant Increase in Strength. Materials and Design, 45, pp. 15 - 23. 83. Qi, L., Liu, J., Guan, J., Su, L., and Zhou, J., 2010. Damage Prediction for Magnesium Matrix Composites Formed by Liquid-Solid Extrusion Process Based on Finite Element Simulation. Trans. Nonferrous Met Soc China, 9 (20), pp. 1737 - 1742. 84. Qing, Q., 2006. Evaluation of Sliding Wear Behavior of Graphite Particle-Containing Magnesium Alloy Composites. Trans. Nonferrous Met Soc.China, 5 (16), pp. 1135 - 1140. 85. Rao, R.N., and Das, S., 2010. Wear Coefficient and Reliability of Sliding Wear Test Procedure for High Strength Aluminium Alloy and Composite. Materials and Design, 7 (31), pp. 3227 - 3233. 86. Rao, R.N., and Das, S., 2011. Effect of SiC Content and Sliding Speed on the Wear Behaviour of Aluminium Matrix Composites. Materials and Design, 2 (32), pp. 1066 - 1071. 87. Ravindran, P., Manisekar, K., Narayanasam, R., and Narayanasamy. P., 2012. Tribological Behaviour of Powder Metallurgy-Processed Aluminium Hybrid Composites with the Addition of Graphite Solid Lubricant. Ceramics International, 2 (39), pp. 1169 - 1182. 88. Sachowiak, G.W., 2005. Wear Materials, Mechanisms and Practice., Southern Gate: John Wiley & Sons Ltd. 128 89. Sankaranarayanan, S., Jayalakshmi, S., and Gupta, M., 2012. Effect of Individual and Combined Addition of Micro/Nano-Sized Metallic Elements on the Microstructure and Mechanical Properties of Pure Mg. Materials and Design, 37, pp. 274 - 284. 90. Sharma, S.C., Anand, B., and Krishna, M., 2000. Evaluation of Sliding Wear Behaviour of Feldspar Particle-Reinforced Magnesium Alloy Composites. Wear, 1 (241), pp. 33 - 40. 91. Shimizu, Y., Miki, S., Soga, T., Itoh, I., Todoroki, H., and Hosono, T., 2008. Multi-Walled Carbon Nanotube-Reinforced Magnesium Alloy Composites. Scripta Materialia, 4 (58), pp. 267 - 270. 92. Sigma-Aldrich., 2012. Silicon carbide : Material Safety Data Sheet. [online] Available at : http://www.sigmaaldrich.com/catalog/product/aldrich/357391?lang=en&region=MY [Accessed on 20 February 2013]. 93. Sinha, S.K., Reddy, S.U., and Gupta, M., 2006. Scratch Hardness and Mechanical Property Correlation for Mg/SiC and Mg/SiC/Ti Metal–Matrix Composites. Tribology International, 2 (39), pp. 184 - 189. 94. Smith, C.S., 1948. Introduction to Grains, Phases, and Interfaces - An Interpretation of Microstructure. Trans. AIME, 5 (175), pp. 15 - 51. 95. Srinovasan, M., Loganathan, C., Kamaraj, M., Nguyen, Q.B., Gupta, M., and Narayanasamy, R., 2012. Sliding Wear Behaviour of AZ31B Magnesium Alloy and Nano-Composite. Trans. Nonferrous Met. Soc. China, 1 (22), pp. 60 - 65. 129 96. Stachowiak, G.W., 2005. Wear: Materials, Mechanisms and Practice, Tribology in Practice Series., West Sussex: Jon Wiley & Sons. 97. Stachowiak, G.W., and Batchelor., A.W., 2001. Engineering Tribology., Waltham: Butterworth-Heinemann. 98. Suresha, S., and Sridhara, B.K., 2010. Effect of Silicon Carbide Particulates on Wear Resistance of Graphitic Aluminium Matrix Composites. Materials and Design, 9 (31), pp. 4470 - 4477. 99. Suryanarayana, C., 2004. Mechanical Alloying and Milling., New York: Marcel Dekker. 100. Thakur, S.K., and Dhindaw, B.K., 2001. The Influence of Interfacial Characteristics Between SiCp and Mg/Al Metal Matrix on Wear, Coefficient of Friction and Microhardness. Wear, 2 (247), pp. 191 - 201. 101. Thakur, S.K., Kwee, G.T., and Gupta, M., 2007a. Development and Characterization of Magnesium Composites Containing Nano-Sized Silicon Carbide and Carbon Nanotubes as Hybrid Reinforcements. Journal of Materials Science, 24 (42), pp. 10040 - 10046. 102. Thakur, S.K., Srivatsan, T.S., and Gupta, M., 2007b. Synthesis and Mechanical Behavior of Carbon Nanotube–Magnesium Composites Hybridized with Nanoparticles of Alumina. Materials Science and Engineering, A (466), pp. 32 - 37. 130 103. Tun, K.S., and Gupta, M. 2008. Effect of Extrusion Ratio on Microstructure and Mechanical Properties of Microwave-Sintered Magnesium and Mg/Y2O3 Nanocomposite. Journal of Materials Science, 13 (43), pp. 4503 - 4511. 104. Ugandhar, S., Gupta, M., Sinha, S.K., 2006. Enhancing strength and ductility of Mg/SiC composites using recrystallization heat treatment. Composite Structures, 2 (72), pp. 266–272. 105. Umeda, J., Kondoh, K., and Imai, H., 2009. Friction and Wear Behavior of Sintered Magnesium Composite Reinforced with CNT-Mg2Si/MgO. Materials Science and Engineering, 1 - 2 (504), pp. 157 - 162. 106. Wan Nur Azrina, W.M., Sajuri, Z., Mutoh, Y., and Miyashita, Y., 2011. Microstructure and Mechanical Properties of Magnesium Composites Prepared by Spark Plasma Sintering Technology. Journal of Alloys and Compounds, 20 (509), pp. 6021 - 6029. 107. Wang, W.G., Xiao, B.L., and Ma, Z.Y., 2012. Evolution of Interfacial Nanostructures and Stress States in Mg Matrix Composites Reinforced with Coated Continuous Carbon Fibers. Composites Science and Technology, 2 (72), pp. 152 - 158. 108. Wang, X., Hu, X., Nie, K., Wu, K., and Zheng, M., 2012. Hot Extrusion of SiCp/AZ91 Mg Matrix Composites. Trans. Nonferrous Met. Soc. China,8 (22), pp. 1912 - 1917. 131 109. Wang, X.J., Xu, L., Hu, X.S., Nie, K.B., Deng, K.K., and Wu, K., 2011. Influences of Extrusion Parameters on Microstructure and Mechanical Properties of Particulate Reinforced Magnesium Matrix Composites. Materials Science and Engineering, 21 (528), pp. 6387 - 6392. 110. Wong, W.L.E., and Gupta, M., 2006. Effect of Hybrid Length Scales (Micro + Nano) of SiC Reinforcement on the Properties of Magnesium. Solid State Phenomena, 111 (2006), pp. 91 - 94. 111. Wong, W.L.E., and Gupta, M., 2007. Development of Mg/Cu Nanocomposites Using Microwave Assisted Rapid Sintering. Composites Science and Technology, 7 - 8(67), pp. 1541 - 1552. 112. Wu, Y.W., Wu, K., Deng, K.K., Nie, K.B., Wang, X.J., and Zheng, M.Y., 2010. Damping Capacities and Microstructures of Magnesium Matrix Composites Reinforced by Graphite Particles. Materials and Design, 10 (31), pp. 4862 - 4865. 113. Xi, Y.L., Chai, D.L., Zhang, W.X., and Zhou, J.E., (2005). Ti–6Al–4V Particle Reinforced Magnesium Matrix Composite by Powder Metallurgy. Materials Letters, 14 – 15 (59), pp. 1831 - 1835. 114. Yan, H., Wan, J., and Nie., Q., 2013. Wear Behavior of Extruded Nano-SiCp Reinforced AZ61 Magnesium Matrix Composites. Advances in Mechanical Engineering, 2013, pp. 1 - 5. 132 115. Yang, Z.R., Wang, S.Q., Gao, M.J., Zhao, Y.T., Chen, K.M., and Cui, X.H., 2008. A New-Developed Magnesium Matrix Composite by Reactive Sintering. Composites, 9 (39), pp. 1427 - 1432. 116. Yao, J., Li, W., Zhang, L., Wang, F., Xue, M., Jiang, H., and Lu, J., 2010. Wear Mechanism for In Situ TiC Particle Reinforced AZ91 Magnesium Matrix Composites. Tribology Letters, 38(3), pp. 253 - 257. 117. Zhang, L., Qu, X. H., Duan, B. H., He, X. B., and Qin, M. L., 2008. Effect of Porosity on Wear Resistance of SiCp/Cu Composites Prepared by Pressureless Infiltration. The Nonferrous Metals Society of China, 5 (18), pp. 1076 - 1082. 118. Zhou, S., Zhang, X., Ding, Z., Min, C., Xu, G., and Zhu, W., 2007. Fabrication and Tribological Properties of Carbon Nanotubes Reinforced Al Composites Prepared by Pressureless Infiltration Technique. Composites,2 (38), pp. 1 - 6.

Dry Sliding Wear And Friction Behavior Of Silicon Carbide And Multi Wall Carbon Nanotubes Reinforced Magnesium Matrix Hybrid Composites

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