KERAMIK (ADVANCE CERAMICS) SEBAGAI MATERIAL ALTERNATIF DI BIDANG KESEHATAN
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Published:
Apr 1, 2009
Keywords:
Alternatif, Bio-keramik, Hidroaxyapatite
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Abstract
Ceramics are non-metal material and are able to meet in daily activities. Generally, ceramic have superior high temperature strength, higher hardness, lower density and lower thermal conductivity than metal. The disadvantages of ceramics as structural materials are flaws, such as cracks, voids, and inclusions. In development of ceramics can be used in medical field for instance, implant of bone or tissue of the body. Hydroaxyapatite (HAp) is one of ceramics that is applied in medical field. In natural resources HAp is easy to find in every place in the world. The advantage of ceramics is bio- comfortable and disadvantages is poor fatigue properties, this material cannot be used in bulk form fro load bearing application such as orthopedics.
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Arifin, F., & Satria Martomi, E. (2009). KERAMIK (ADVANCE CERAMICS) SEBAGAI MATERIAL ALTERNATIF DI BIDANG KESEHATAN. AUSTENIT, 1(01). https://doi.org/10.5281/zenodo.4542569
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References
Berndt, C. C., Lin, C. K., 1993, Measurement of adhesion for thermally sprayed materials, Journal of Adhesion Science and technology no.17 hal 1235-1264
Black, J., Hasting, G.W., 1998, Handbook of biomaterial properties, Chapman and Hall, London
Chiang, Y., Jakus, K, 1999, Fundamental needs in ceramics, NSF workshop report, Massachusetts Institute of Technology, NSF Grant#DMR-9714807
Griffon, D.J., 2002, Evaluation of osteoproductive biomaterial: allograft, bone inducing, agent, bioactive glass, and ceramics, Department of clinical veterinary sciences, University of Helsinki
Hayes, B., Better bone implant, Using Space Technology, 2006, NASA, http://www.science.nasa.gov, diakses
13 oktober 2006
Lukkassen D., Meidell A., 2003, In Advance Material and Structures and their Fabrication Process, ed. 3th , Narvic University College, HiN.
Mano, J.F., Sausa, R.A., 2004, Bioinert, biodegradelble and injectable polymer matrix composite for hard tissue replacement: state of art and recent development’, Journal of composite Science and technology no. 64 hal. 789-
817.
Mitchell, B.S., 2004, An Introduction to Material Engineering and Science, for Chemical Material Engineers. ISBN 0-
471-43623-2, Jhon Wiley and Sons Inc.
Nathan, R., 1985, Application of high performance ceramic in heat engine design, Journal of material Science and Energy no. 71 hal. 227-249.
Pompe, W., Gelinsky, M., Hofinger, I., and Nicolai, K., 1999. Funtionally grade collagen hydroapatite materials for bone replacement, Journal of Ceramic Transactions 114 hal. 65-72
Ramakrisna, S., Mayer, J., Wintermantel, E., Leong, K.W., application of 2001, Biomedical polymer composite material, A review Journal of Computer Science and Technology No. 61 hal. 1189-1224
Sbornicchia, P, Classification of calciumphospate bone graft substitutes, University of Torvergata, 2005 diakses pada 15 oktober 2006, http://www.cirmib.ing.unitn.it/Lecture/ Lecture2005/Bonegraftsubtitutes.pdf.
…………, Hydroxyapatite, diakses tanggal 12 oktober 2006 dari http://www.azom.com/detail.asp?Articl eID=107
………,1991, Therminology of Adhesion, American Society for Testing Material, D 907-91b, Philadelphia
Black, J., Hasting, G.W., 1998, Handbook of biomaterial properties, Chapman and Hall, London
Chiang, Y., Jakus, K, 1999, Fundamental needs in ceramics, NSF workshop report, Massachusetts Institute of Technology, NSF Grant#DMR-9714807
Griffon, D.J., 2002, Evaluation of osteoproductive biomaterial: allograft, bone inducing, agent, bioactive glass, and ceramics, Department of clinical veterinary sciences, University of Helsinki
Hayes, B., Better bone implant, Using Space Technology, 2006, NASA, http://www.science.nasa.gov, diakses
13 oktober 2006
Lukkassen D., Meidell A., 2003, In Advance Material and Structures and their Fabrication Process, ed. 3th , Narvic University College, HiN.
Mano, J.F., Sausa, R.A., 2004, Bioinert, biodegradelble and injectable polymer matrix composite for hard tissue replacement: state of art and recent development’, Journal of composite Science and technology no. 64 hal. 789-
817.
Mitchell, B.S., 2004, An Introduction to Material Engineering and Science, for Chemical Material Engineers. ISBN 0-
471-43623-2, Jhon Wiley and Sons Inc.
Nathan, R., 1985, Application of high performance ceramic in heat engine design, Journal of material Science and Energy no. 71 hal. 227-249.
Pompe, W., Gelinsky, M., Hofinger, I., and Nicolai, K., 1999. Funtionally grade collagen hydroapatite materials for bone replacement, Journal of Ceramic Transactions 114 hal. 65-72
Ramakrisna, S., Mayer, J., Wintermantel, E., Leong, K.W., application of 2001, Biomedical polymer composite material, A review Journal of Computer Science and Technology No. 61 hal. 1189-1224
Sbornicchia, P, Classification of calciumphospate bone graft substitutes, University of Torvergata, 2005 diakses pada 15 oktober 2006, http://www.cirmib.ing.unitn.it/Lecture/ Lecture2005/Bonegraftsubtitutes.pdf.
…………, Hydroxyapatite, diakses tanggal 12 oktober 2006 dari http://www.azom.com/detail.asp?Articl eID=107
………,1991, Therminology of Adhesion, American Society for Testing Material, D 907-91b, Philadelphia