After the implantation of a biomaterial in the body, the first interaction occurs between the cells in contact with the biomaterial surface. Therefore, evaluating the cell-substrate interface is crucial for designing a successful implant. In this study, the interaction of MC3T3 osteoblasts was studied on commercially pure and alloy (Ti6Al4V) Ti surfaces treated with amorphous and crystalline titanium dioxide nanotubes. The results indicated that the presence of nanotubes increased the density of osteoblast cells in comparison to bare surfaces (no nanotubes). More importantly, our finding shows that the chemistry of the substrate affects the cell density rather than the morphology of the cells. A novel approach based on the focused ion beam ...
Anodization of titanium and its alloys, under controlled conditions, generates a nanotubular archite...
International audienceThis study is part of a new trend in the metallic biomaterials field that sear...
Surface nanostructures have shown potential as biomaterials, in tissue engineering and regenerative ...
Tolou Shokuhfar,1–3 Azhang Hamlekhan,1 Jen-Yung Chang,1 Chang Kyoung Choi,1 Cortino Sukotjo,4 ...
The biological response to implant materials has been a topic of extensive research and discussion t...
Extensive research for biomaterial development and implant technology has focused on the surface of ...
Studies of biomaterial surfaces and their influence on cell behavior provide insights concerning the...
Titanium and titanium alloys exhibit a unique combination of strength and biocompatibility, which en...
Studies of biomaterial surfaces and their influence on cell behavior provide insights concerning the ...
The titanium dioxide (TiO2) nanotube surface enables significantly accelerated osteoblast adhesion a...
Patients who have had an implant of some form in their body not only have to face the challenges of ...
The titanium oxide layer with nano–micro hybrid structure on the titanium substrate was formed by gr...
This work summarizes information about the interactions between osteoblasts and nanostructured mater...
This work summarizes information about the interactions between osteoblasts and nanostructured mater...
Abstract: Titiania nanotubes have large potential in medical implant applications but their tissue c...
Anodization of titanium and its alloys, under controlled conditions, generates a nanotubular archite...
International audienceThis study is part of a new trend in the metallic biomaterials field that sear...
Surface nanostructures have shown potential as biomaterials, in tissue engineering and regenerative ...
Tolou Shokuhfar,1–3 Azhang Hamlekhan,1 Jen-Yung Chang,1 Chang Kyoung Choi,1 Cortino Sukotjo,4 ...
The biological response to implant materials has been a topic of extensive research and discussion t...
Extensive research for biomaterial development and implant technology has focused on the surface of ...
Studies of biomaterial surfaces and their influence on cell behavior provide insights concerning the...
Titanium and titanium alloys exhibit a unique combination of strength and biocompatibility, which en...
Studies of biomaterial surfaces and their influence on cell behavior provide insights concerning the ...
The titanium dioxide (TiO2) nanotube surface enables significantly accelerated osteoblast adhesion a...
Patients who have had an implant of some form in their body not only have to face the challenges of ...
The titanium oxide layer with nano–micro hybrid structure on the titanium substrate was formed by gr...
This work summarizes information about the interactions between osteoblasts and nanostructured mater...
This work summarizes information about the interactions between osteoblasts and nanostructured mater...
Abstract: Titiania nanotubes have large potential in medical implant applications but their tissue c...
Anodization of titanium and its alloys, under controlled conditions, generates a nanotubular archite...
International audienceThis study is part of a new trend in the metallic biomaterials field that sear...
Surface nanostructures have shown potential as biomaterials, in tissue engineering and regenerative ...