Surface energy characterization of unalloyed titanium implants
Identifieur interne : 005279 ( Istex/Corpus ); précédent : 005278; suivant : 005280Surface energy characterization of unalloyed titanium implants
Auteurs : Deepak V. Kilpadi ; Jack E. LemonsSource :
- Journal of Biomedical Materials Research [ 0021-9304 ] ; 1994-12.
English descriptors
- KwdEn :
- Average contact angle, Average grain size, Biologic environment, Bulk grain size, Colloid, Colloid interface, Composite value, Confidence level, Contact angle, Contact angle measurements, Contact angles, Critical surface tension, Critical surface tension values, Critical surface tensions, Cst, Dental implants, Diiodomethane, Dispersive, Dispersive component, Dispersive csts, Dispersive liquids, Flats, Grain size, Higher surface energy, Implant, Implant materials, Implant surface, John wiley sons, Machined, Machined flats, Molecular forces, Oral implantol, Passivated, Polar components, Polar liquids, Rougher surface, Roughness, Significant difference, Surface analysis, Surface conditions, Surface energies, Surface energy, Surface energy characterization, Surface energy measurements, Surface oxide, Surface preparation, Surface roughness, Surface tension, Surface tensions, Surface texture, Surface treatment, Titanium, Titanium implants, Titanium surfaces, Unalloyed, Unalloyed titanium, Untreated surface, Zisman, Zisman plot.
- Teeft :
- Average contact angle, Average grain size, Biologic environment, Bulk grain size, Colloid, Colloid interface, Composite value, Confidence level, Contact angle, Contact angle measurements, Contact angles, Critical surface tension, Critical surface tension values, Critical surface tensions, Cst, Dental implants, Diiodomethane, Dispersive, Dispersive component, Dispersive csts, Dispersive liquids, Flats, Grain size, Higher surface energy, Implant, Implant materials, Implant surface, John wiley sons, Machined, Machined flats, Molecular forces, Oral implantol, Passivated, Polar components, Polar liquids, Rougher surface, Roughness, Significant difference, Surface analysis, Surface conditions, Surface energies, Surface energy, Surface energy characterization, Surface energy measurements, Surface oxide, Surface preparation, Surface roughness, Surface tension, Surface tensions, Surface texture, Surface treatment, Titanium, Titanium implants, Titanium surfaces, Unalloyed, Unalloyed titanium, Untreated surface, Zisman, Zisman plot.
Abstract
Osteointegration is dependent on a variety of biomechanical and biochemical factors. One factor is the wettability of an implant surface that is directly influenced by its surface energy. This investigation used the Zisman plot to determine critical surface energy. The effects of surface treatment, bulk grain size, and surface roughness on the critical surface tension of unalloyed titanium (Ti) were examined. Radio frequency glow discharge‐treated Ti had the highest critical surface tension, followed by the passivated and heat‐sterlized conditions. Titanium with no surface treatment had the lowest critical surface tension. The surface energy of Ti with an average grain size of 23 μm was not significantly different from that with a grain size of 70 μm. Surface roughness was shown to cause significant difference in measurements and definitely should be considered in studies of this kind. © 1994 John Wiley & Sons, Inc.
Url:
DOI: 10.1002/jbm.820281206
Links to Exploration step
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<front><div type="abstract" xml:lang="en">Osteointegration is dependent on a variety of biomechanical and biochemical factors. One factor is the wettability of an implant surface that is directly influenced by its surface energy. This investigation used the Zisman plot to determine critical surface energy. The effects of surface treatment, bulk grain size, and surface roughness on the critical surface tension of unalloyed titanium (Ti) were examined. Radio frequency glow discharge‐treated Ti had the highest critical surface tension, followed by the passivated and heat‐sterlized conditions. Titanium with no surface treatment had the lowest critical surface tension. The surface energy of Ti with an average grain size of 23 μm was not significantly different from that with a grain size of 70 μm. Surface roughness was shown to cause significant difference in measurements and definitely should be considered in studies of this kind. © 1994 John Wiley & Sons, Inc.</div>
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<p>Osteointegration is dependent on a variety of biomechanical and biochemical factors. One factor is the wettability of an implant surface that is directly influenced by its surface energy. This investigation used the Zisman plot to determine critical surface energy. The effects of surface treatment, bulk grain size, and surface roughness on the critical surface tension of unalloyed titanium (Ti) were examined. Radio frequency glow discharge‐treated Ti had the highest critical surface tension, followed by the passivated and heat‐sterlized conditions. Titanium with no surface treatment had the lowest critical surface tension. The surface energy of Ti with an average grain size of 23 μm was not significantly different from that with a grain size of 70 μm. Surface roughness was shown to cause significant difference in measurements and definitely should be considered in studies of this kind. © 1994 John Wiley & Sons, Inc.</p>
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<abstract lang="en">Osteointegration is dependent on a variety of biomechanical and biochemical factors. One factor is the wettability of an implant surface that is directly influenced by its surface energy. This investigation used the Zisman plot to determine critical surface energy. The effects of surface treatment, bulk grain size, and surface roughness on the critical surface tension of unalloyed titanium (Ti) were examined. Radio frequency glow discharge‐treated Ti had the highest critical surface tension, followed by the passivated and heat‐sterlized conditions. Titanium with no surface treatment had the lowest critical surface tension. The surface energy of Ti with an average grain size of 23 μm was not significantly different from that with a grain size of 70 μm. Surface roughness was shown to cause significant difference in measurements and definitely should be considered in studies of this kind. © 1994 John Wiley & Sons, Inc.</abstract>
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