Nanostructured Carbon Films Produced by Pulsed Laser Deposition for Bio-Medical Applications

Abstract:

Damond-like (DLC) films can be produced by Pulsed Laser Deposition (PLD) technique. Different pulsed lasers can be employed to generate hot carbon plasma, to deposit and/or to implant energetic carbon atoms and molecules on substrates. A Nd:Yag laser radiation with ns pulse duration, about 1010 W/cm2intensity and 30 Hz repetition rate, can be employed to produce in vacuum thin carbon films with properties similar to graphite and diamond. The films were deposited on SiO2 substrates, placed at different distances and angles from the target. The PLDgenerated plasma can be controlled “in situ” by mass quadrupole spectroscopy and time-of-flight tehniques. “Ex situ” investigations were performed on the deposited films by using the Scanning Electron Microscopy (SEM) and Raman spectroscopy. Deposited films show evidence of carbon nanostructures, which find a growing variety of applications in medicine and bio-enegineering fields. Diamond-like carbon (DLC) shows low friction, high atomic density, hard but flexible structure, chemical inertia, wear, diffusion and corrosion resistance and highly bio and hemocompatible properties.

• Periodical: Advances in Science and Technology (Volume 49)
• Pages: 79-84
• DOI: https://doi.org/10.4028/www.scientific.net/AST.49.79
• Online since: October 2006
• Authors: A. Mangione, Lorenzo Torrisi, A. Picciotto, Anna Maria Visco, Nino Campo
• Keywords: Carbon Nanostructures, DLC Structure, Laser Ablation, Raman Spectroscopy

References

[1] V. Mortet, J. D'Haen, J. Potmesil, R. Kravets, I. Drbohlav, V. Vorlicek, J. Rosa and M. Vanelek Diamond and Related Materials, 14 (2005) 393-397.

DOI: 10.1016/j.diamond.2004.12.057

[2] M. Nesladek, Semicondutctor Science and Technology, 20 (2005) R19-R27.

[3] James H. Arps and Geoff Dearnaley Encyclopedia of Biomaterials and Biomedical Engineering (31Aug 2004) 1-10.

[4] http: /www. brunel. ac. uk.

[5] M.I. Jones, I.R. McColl, D.M. Grant, K.G. Parker, et al., Diam. Rel. Mat. 8 (1999) 457-462.

[6] L. Anne Thomson, Frances C. Law, Neil Rushton, J. Franks Biomaterials 12(January 1991): 37-40.

[7] Mangione, A., Torrisi, L., Picciotto, A., Caridi, F., Margarone, D., Fazio, E., La Mantia, A., Di Marco, G., Radiation Effects and Defects in Solids, 160 (10-12): 655-662, Oct-Dec (2005).

DOI: 10.1080/10420150500493188

[8] Torrisi, L., Caridi, F., Margarone, D., Picciotto, A., Mangione, A. and Beltrano, J.J., Appl. Surf. Science, 2005, in press.

[9] H.G. Willert, G.H. Buchhorn, M. Semlitsch, Particle disease dur to wear of metal alloys. Findings from retrieval studies, in B.F. Morrey, ed., Biological, Material and Mechanical Considerations of Joint Replacement, Raven Press, New York, 1993, pp.129-146.

[10] S.B. Goodman, V.L. Fornasier, J. Lee, J. Kei, J. Biomed. Mater. Res. 24(1990) 517-524.

[11] http: /www. goodfellow. com/csp/active/gfHome. csp.

[12] L. Torrisi, S. Gammino, L. Andò, A.M. Mezzasalma, J. Badziak, P. Parys, J. Wolowski, E. Woryna, K. Jungwirth, B. Králiková, J. Krása, L. Láska, M. Pfeifer, K. Rohlena, J. Skála, J. Ullschmied and F.P. Boody, Czech. J. of Physics 52(D) (2002).

DOI: 10.1142/9789812702555_0012

[13] K.E. Spear and J.P. Dismukes Synthetic diamond: emerging CVD science and technology, K.E. Spear and J.P. Dismukes Eds., JohnWiley & Sons. Inc., New York, (1994).

[14] T.L. Schindlerand and Y.K. Vohra, J. Phys. Condens. Matter 7 (1995) L637-L642.

[15] G. Compagnini, O. Puglisi and G. Foti, Carbon 35(12) (1997) 1793-1797.

[16] A.A. Ogwu, R.W. Lamberton, P.D. Maguire and J.A. McLaughlin J. Phys. D: Appl. Phys. 32 (1999) 981-987.