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Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique

The practical use of additive manufacturing to create artificial bone as a material for repairing complex bone defects is currently attracting attention. In this study, we compared the osteogenic capacity of materials composited by the method developed by Kokubo et al. of treating 3D-printed titaniu...

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Autores principales: Yamamoto, Kayoko, Yamaguchi, Seiji, Matsushita, Tomiharu, Mori, Shigeo, Hirata, Azumi, Kato-Kogoe, Nahoko, Nakano, Hiroyuki, Nakajima, Yoichiro, Nishitani, Yoshihiro, Nagatsuka, Hitoshi, Ueno, Takaaki
Formato: Online Artículo Texto
Lenguaje:English
Publicado: The Royal Society of Chemistry 2018
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9082758/
https://www.ncbi.nlm.nih.gov/pubmed/35541945
http://dx.doi.org/10.1039/c8ra04193h
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author Yamamoto, Kayoko
Yamaguchi, Seiji
Matsushita, Tomiharu
Mori, Shigeo
Hirata, Azumi
Kato-Kogoe, Nahoko
Nakano, Hiroyuki
Nakajima, Yoichiro
Nishitani, Yoshihiro
Nagatsuka, Hitoshi
Ueno, Takaaki
author_facet Yamamoto, Kayoko
Yamaguchi, Seiji
Matsushita, Tomiharu
Mori, Shigeo
Hirata, Azumi
Kato-Kogoe, Nahoko
Nakano, Hiroyuki
Nakajima, Yoichiro
Nishitani, Yoshihiro
Nagatsuka, Hitoshi
Ueno, Takaaki
author_sort Yamamoto, Kayoko
collection PubMed
description The practical use of additive manufacturing to create artificial bone as a material for repairing complex bone defects is currently attracting attention. In this study, we compared the osteogenic capacity of materials composited by the method developed by Kokubo et al. of treating 3D-printed titanium (Ti) mesh with a mixture of H(2)SO(4) and HCl and heating (mixed-acid and heat treatment) with that of materials subjected to conventional chemical treatment. Ti plates treated with this method have been found to promote highly active bone formation on their surface when inserted into rabbit tibial bone defects. No previous study has compared this method with other surface treatment methods. In this study, we used histological and other observations to compare the bone formation process in bone defects when Ti meshes prepared by the selective laser melting technique (SLM) and treated either with mixed acids and heat or with conventional chemical Ti surface treatments were implanted in a rat calvarial bone defect model. We found that both micro-computed tomography and observations of undecalcified ground sections showed that the best bone formation was observed in rats implanted with mesh treated with mixed acids and heat. Our results suggest that mixed-acid and heat-treated Ti mesh prepared by SLM may have a high osteogenic capacity in bone defects.
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spelling pubmed-90827582022-05-09 Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique Yamamoto, Kayoko Yamaguchi, Seiji Matsushita, Tomiharu Mori, Shigeo Hirata, Azumi Kato-Kogoe, Nahoko Nakano, Hiroyuki Nakajima, Yoichiro Nishitani, Yoshihiro Nagatsuka, Hitoshi Ueno, Takaaki RSC Adv Chemistry The practical use of additive manufacturing to create artificial bone as a material for repairing complex bone defects is currently attracting attention. In this study, we compared the osteogenic capacity of materials composited by the method developed by Kokubo et al. of treating 3D-printed titanium (Ti) mesh with a mixture of H(2)SO(4) and HCl and heating (mixed-acid and heat treatment) with that of materials subjected to conventional chemical treatment. Ti plates treated with this method have been found to promote highly active bone formation on their surface when inserted into rabbit tibial bone defects. No previous study has compared this method with other surface treatment methods. In this study, we used histological and other observations to compare the bone formation process in bone defects when Ti meshes prepared by the selective laser melting technique (SLM) and treated either with mixed acids and heat or with conventional chemical Ti surface treatments were implanted in a rat calvarial bone defect model. We found that both micro-computed tomography and observations of undecalcified ground sections showed that the best bone formation was observed in rats implanted with mesh treated with mixed acids and heat. Our results suggest that mixed-acid and heat-treated Ti mesh prepared by SLM may have a high osteogenic capacity in bone defects. The Royal Society of Chemistry 2018-07-20 /pmc/articles/PMC9082758/ /pubmed/35541945 http://dx.doi.org/10.1039/c8ra04193h Text en This journal is © The Royal Society of Chemistry https://creativecommons.org/licenses/by-nc/3.0/
spellingShingle Chemistry
Yamamoto, Kayoko
Yamaguchi, Seiji
Matsushita, Tomiharu
Mori, Shigeo
Hirata, Azumi
Kato-Kogoe, Nahoko
Nakano, Hiroyuki
Nakajima, Yoichiro
Nishitani, Yoshihiro
Nagatsuka, Hitoshi
Ueno, Takaaki
Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
title Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
title_full Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
title_fullStr Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
title_full_unstemmed Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
title_short Osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
title_sort osteogenic capacity of mixed-acid and heat-treated titanium mesh prepared by a selective laser melting technique
topic Chemistry
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9082758/
https://www.ncbi.nlm.nih.gov/pubmed/35541945
http://dx.doi.org/10.1039/c8ra04193h
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