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http://dx.doi.org/10.6111/JKCGCT.2015.25.3.098

Effect of surface-treatments on flexibility and guided bone regeneration of titanium barrier membrane  

Kim, Jin-Tae (Dental Materials Research Center, Neobiotech Co., Ltd.)
Kim, Byoung Soo (Dental Materials Research Center, Neobiotech Co., Ltd.)
Jeong, Hee Seok (Dental Materials Research Center, Neobiotech Co., Ltd.)
Heo, Young Ku (Dental Materials Research Center, Neobiotech Co., Ltd.)
Shin, Sang-Wan (Institute for Clinical Dental Research, Korea University)
Lee, Jeong-Yol (Institute for Clinical Dental Research, Korea University)
Shim, Young Ho (Institute for Clinical Dental Research, Korea University)
Lee, Deuk Yong (Department of Biomedical Engineering, Daelim University)
Abstract
Titanium barrier membranes are prepared to investigate the effect of surface-treatments, such as machining, electropolishing, anodizing, and electropolishing + TiN coating, on the biocompatibility and physical properties of the membranes. The surface roughness (Ra) of the membrane decreases from machining ($0.37{\pm}0.09{\mu}m$), TiN coating ($0.22{\pm}0.09{\mu}m$), electropolishing ($0.20{\pm}0.03{\mu}m$), to anodizing ($0.15{\pm}0.03{\mu}m$). The highest ductility (24.50 %) is observed for the electropolished Ti membrane. No evidence of causing cell lysis or toxicity is found for the membranes regardless of the surface-treatments. Cell adhesion results of L-929 and MG-63 show that the machined Ti membrane exhibits the highest cell adhesion while the electropolished membrane is the best membrane for the L-929 cell proliferation after 7 days. However, no appreciable difference in MG-63 cell proliferation among variously surface-treated membranes is detected, suggesting that the electropolished Ti membrane is likely to be the best membrane due to the synergic combination of tailored flexibility and excellent fibroblast proliferation.
Keywords
Pure titanium; Surface-treatment; Roughness; Biocompatibility; Cytotoxicity; Cell proliferation;
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