Skip to Main Content (Press Enter)

Logo UNICH
  • ×
  • Home
  • Degrees
  • Courses
  • Jobs
  • People
  • Outputs
  • Organizations
  • Third Mission
  • Projects
  • Expertise & Skills

UNI-FIND
Logo UNICH

|

UNI-FIND

unich.it
  • ×
  • Home
  • Degrees
  • Courses
  • Jobs
  • People
  • Outputs
  • Organizations
  • Third Mission
  • Projects
  • Expertise & Skills
  1. Outputs

Influence of nano, micro and macro topography of dental implant surfaces on human gingival fibroblasts

Academic Article
Publication Date:
2021
abstract:
Current research on dental implants has mainly focused on the influence of surface roughness on the rate of osseointegration, while studies on the development of surfaces to also improve the interaction of peri-implant soft tissues are lacking. To this end, the first purpose of this study was to evaluate the response of human gingival fibroblasts (hGDFs) to titanium implant discs (Implacil De Bortoli, Brazil) having different micro and nano-topography: machined (Ti-M) versus sandblasted/double-etched (Ti-S). The secondary aim was to investigate the effect of the macrogeometry of the discs on cells: linear-like (Ti-L) versus wave-like (Ti-W) surfaces. The atomic force microscopy (AFM) and scanning electron microscopy (SEM) analysis showed that the Ti-S surfaces were characterized by a significantly higher micro and nano roughness and showed the 3D macrotopography of Ti-L and Ti-W surfaces. For in vitro analyses, the hGDFs were seeded into titanium discs and analyzed at 1, 3, and 5 days for adhesion and morphology (SEM) viability and proliferation (Cck-8 and MTT assays). The results showed that all tested surfaces were not cytotoxic for the hGDFs, rather the nano-micro and macro topography favored their proliferation in a time-dependent manner. Especially, at 3 and 5 days, the number of cells on Ti-L was higher than on other surfaces, including Ti-W surfaces. In conclusion, although further studies are needed, our in vitro data proved that the use of implant discs with Ti-S surfaces promotes the adhesion and proliferation of gingival fibroblasts, suggesting their use for in vivo applications.
Iris type:
1.1 Articolo in rivista
Keywords:
Dental implants; Fibroblasts; Macrogeometry; Roughness; Surface; titanium
List of contributors:
Petrini, M.; Pierfelice, T. V.; D'Amico, E.; Di Pietro, N.; Pandolfi, A.; D'Arcangelo, C.; De Angelis, F.; Mandatori, D.; Schiavone, V.; Piattelli, A.; Iezzi, G.
Authors of the University:
D'AMICO EMIRA
DE ANGELIS FRANCESCO
DI PIETRO NATALIA
IEZZI GIOVANNA
MANDATORI DOMITILLA
PANDOLFI Assunta
PETRINI MORENA
PIERFELICE TANIA VANESSA
Handle:
https://ricerca.unich.it/handle/11564/758061
Full Text:
https://ricerca.unich.it//retrieve/handle/11564/758061/272235/Petrini%20et%20al%20ijms-2021.pdf
Published in:
INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES
Journal
  • Use of cookies

Powered by VIVO | Designed by Cineca | 26.4.5.0