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Diamond nanoparticles

Bacakova L, Grausovd L, Vadk J, Fraczek A, Blaze-wicz S, Kromka A, Vanecek M, Svordk V (2007) Improved Adhesion and Growth of Human Osteoblast-Like MG 63 Cells on Biomaterials Modified with Carbon Nanoparticles. Diamond relat. mater. 16 2133-2140. [Pg.199]

Kassiba, A., Makowska-Janusik, M., Boucle, J., Bardeau, J.-F., Bulou, A., Herlin, N., Mayne, M., Armand, X. (2002a). Stoichiometry and interface effects on the electronic and optical properties of SiC nanoparticles. Diamond and Related Materials, 11,1243-1247. [Pg.664]

Chapter 1 contains a review of carbon materials, and emphasizes the stmeture and chemical bonding in the various forms of carbon, including the foui" allotropes diamond, graphite, carbynes, and the fullerenes. In addition, amorphous carbon and diamond fihns, carbon nanoparticles, and engineered carbons are discussed. The most recently discovered allotrope of carbon, i.e., the fullerenes, along with carbon nanotubes, are more fully discussed in Chapter 2, where their structure-property relations are reviewed in the context of advanced technologies for carbon based materials. The synthesis, structure, and properties of the fullerenes and... [Pg.555]

Zhang Y, Suryanarayanan V, et al. 2004. Electrochemical behaviour of Au nanoparticle deposited on as-grown and O-terminated diamond electrodes for oxygen reduction in alkaline solution. Electrochim Acta 2004 5235-5240. [Pg.592]

Moreover, it was found that incorporation of nanoparticles about 8 nm in diameter in a-Si H led to improved properties, the most important one being enhanced stability against light soaking and thermal annealing [387]. A later study revealed a typical crystallite size of 2-3 nm. with a hexagonal close-packed structure [388]. Diamond structures can also be observed [389]. Hence the name polymorphous silicon is justified. [Pg.113]

Saez V, Gonzalez-Garcia J, Kulandainathan MA et al (2007) Electro-deposition and stripping of catalytically iron metal nanoparticles at boron-doped diamond electrodes. Electrochem Commun 9 1127-1133... [Pg.128]

He, Z., et ah, Electrodeposition ofPt-Ru nanoparticles on carbon nanotubes and their electrocatalytic properties for methanol electrooxidation. Diamond and Related Materials, 2004.13(10) p.1764-1770. [Pg.168]

Figure 29. Fiuman osteoblast-like MG 63 cells in cultures on material surfaces modified with carbon nanoparticles. A fullerene Cgo layers deposited on carbon fibre-reinforced carbon composites (CFRC), B fullerene C o layers deposited on microscopic glass coverslips, C terpolymer of polytetrafluoroethylene, polyvinyldifluoride and polypropylene, mixed with 4% of single-wall carbon nanohorns, D the same terpolymer with high crystalline electric arc multi-wall nanotubes, E diamond layer with hierarchically organized micro- and nanostmcture deposited on a Si substrate, F nanocrystalline diamond layer on a Si substrate. Standard control cell culture substrates were represented by a PS culture dish (G) and microscopic glass coverslip (FI). Immunofluorescence staining on day 2 (A) or 3 (B-Fl) after seeding, Olympus epifluorescence microscope IX 50, digital camera DP 70, obj. 20x, bar 100 pm (A, C, D, G,H)or 200 pm (B, E, F) [16]. Figure 29. Fiuman osteoblast-like MG 63 cells in cultures on material surfaces modified with carbon nanoparticles. A fullerene Cgo layers deposited on carbon fibre-reinforced carbon composites (CFRC), B fullerene C o layers deposited on microscopic glass coverslips, C terpolymer of polytetrafluoroethylene, polyvinyldifluoride and polypropylene, mixed with 4% of single-wall carbon nanohorns, D the same terpolymer with high crystalline electric arc multi-wall nanotubes, E diamond layer with hierarchically organized micro- and nanostmcture deposited on a Si substrate, F nanocrystalline diamond layer on a Si substrate. Standard control cell culture substrates were represented by a PS culture dish (G) and microscopic glass coverslip (FI). Immunofluorescence staining on day 2 (A) or 3 (B-Fl) after seeding, Olympus epifluorescence microscope IX 50, digital camera DP 70, obj. 20x, bar 100 pm (A, C, D, G,H)or 200 pm (B, E, F) [16].
An intermediate case (Bazin et al., 2002) between bulk and surface diffraction is reached for nanoparticles when the contribution from surface atoms becomes significant and diffraction analysis in the limit of infinite periodic lattice models inadequately describes the diffraction data. A case study with diamond nanoparticles (Palosz et al., 2002) describes elegantly the possibilities and limitations of diffraction analysis of such samples there is a focus on the nonperiodic structure such as strain and disorder induced by the dominant presence of a nonideal surface termination. [Pg.328]

Ivandini, T.A., Naono, Y., Nakajima, A. and Einaga, Y. (2005) Gold-nanoparticle-dispersed boron-doped diamond electrodes for electrochemical oxidation of oxalic acid. Chem. Lett. 34, 1086-1087... [Pg.225]

Fig. 10 Rate constant app as function of the surface area S of metal nanoparticles normalized to the unit volume of the system squares SPB-Ag composite particles, circles microgel-Ag composite particles, triangles microgel-Pd composite particles, and diamonds SPB-Pt composite particles [72]. T = 20°C, [4-nitrophenol] = O.lmmolL-1, [NaBPLj] = lOmmolL-1 [24]... Fig. 10 Rate constant app as function of the surface area S of metal nanoparticles normalized to the unit volume of the system squares SPB-Ag composite particles, circles microgel-Ag composite particles, triangles microgel-Pd composite particles, and diamonds SPB-Pt composite particles [72]. T = 20°C, [4-nitrophenol] = O.lmmolL-1, [NaBPLj] = lOmmolL-1 [24]...
Barber ZH, Clyne TW (2002) Ag nanoparticle induced surface enhanced Raman spectroscopy of chemical vapor deposition diamond thin films prepared by hot filament chemical vapor deposition. J Appl Phys 91 6085-6088... [Pg.132]


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See also in sourсe #XX -- [ Pg.176 ]

See also in sourсe #XX -- [ Pg.176 ]




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