Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation
Nano-engineered implants are a promising orthopedic implant modification enhancing bioactivity and integration. Despite the lack of destruction of an oxide layer confirmed in ex vivo and in vivo implantation, the testing of a microrupture of an anodic layer initiating immune-inflammatory reaction is...
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doaj-016f6076fc5d4fb186532faceb73172d2020-11-25T01:12:56ZengMDPI AGMaterials1996-19442020-01-0113117610.3390/ma13010176ma13010176Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw ImplantationKatarzyna Arkusz0Marta Nycz1Ewa Paradowska2Department of Biomedical Engineering, Faculty of Mechanical Engineering, University of Zielona Gora, Licealna 9 Street, 65-417 Zielona Gora, PolandDepartment of Biomedical Engineering, Faculty of Mechanical Engineering, University of Zielona Gora, Licealna 9 Street, 65-417 Zielona Gora, PolandDepartment of Biomedical Engineering, Faculty of Mechanical Engineering, University of Zielona Gora, Licealna 9 Street, 65-417 Zielona Gora, PolandNano-engineered implants are a promising orthopedic implant modification enhancing bioactivity and integration. Despite the lack of destruction of an oxide layer confirmed in ex vivo and in vivo implantation, the testing of a microrupture of an anodic layer initiating immune-inflammatory reaction is still underexplored. The aim of this work was to form the compact and nanotubular oxide layer on the Ti6Al4V ELI transpedicular screws and electrochemical detection of layer microrupture after implantation ex vivo by the Magerl technique using scanning electron microscopy and highly sensitive electrochemical methods. For the first time, the obtained results showed the ability to form the homogenous nanotubular layer on an Ti6Al4V ELI screw, both in α and β-phases, with favorable morphology, i.e., 35 ÷ 50 ± 5 nm diameter, 1500 ± 100 nm height. In contrast to previous studies, microrupture and degradation of both form layers were observed using ultrasensitive electrochemical methods. Mechanical stability and corrosion protection of nanotubular layer were significantly better when compared to compact oxide layer and bare Ti6Al4V ELI.https://www.mdpi.com/1996-1944/13/1/176transpedicular screwtitania nanotubesex vivo implantationmicrorupture |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Katarzyna Arkusz Marta Nycz Ewa Paradowska |
spellingShingle |
Katarzyna Arkusz Marta Nycz Ewa Paradowska Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation Materials transpedicular screw titania nanotubes ex vivo implantation microrupture |
author_facet |
Katarzyna Arkusz Marta Nycz Ewa Paradowska |
author_sort |
Katarzyna Arkusz |
title |
Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation |
title_short |
Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation |
title_full |
Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation |
title_fullStr |
Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation |
title_full_unstemmed |
Electrochemical Evaluation of the Compact and Nanotubular Oxide Layer Destruction under Ex Vivo Ti6Al4V ELI Transpedicular Screw Implantation |
title_sort |
electrochemical evaluation of the compact and nanotubular oxide layer destruction under ex vivo ti6al4v eli transpedicular screw implantation |
publisher |
MDPI AG |
series |
Materials |
issn |
1996-1944 |
publishDate |
2020-01-01 |
description |
Nano-engineered implants are a promising orthopedic implant modification enhancing bioactivity and integration. Despite the lack of destruction of an oxide layer confirmed in ex vivo and in vivo implantation, the testing of a microrupture of an anodic layer initiating immune-inflammatory reaction is still underexplored. The aim of this work was to form the compact and nanotubular oxide layer on the Ti6Al4V ELI transpedicular screws and electrochemical detection of layer microrupture after implantation ex vivo by the Magerl technique using scanning electron microscopy and highly sensitive electrochemical methods. For the first time, the obtained results showed the ability to form the homogenous nanotubular layer on an Ti6Al4V ELI screw, both in α and β-phases, with favorable morphology, i.e., 35 ÷ 50 ± 5 nm diameter, 1500 ± 100 nm height. In contrast to previous studies, microrupture and degradation of both form layers were observed using ultrasensitive electrochemical methods. Mechanical stability and corrosion protection of nanotubular layer were significantly better when compared to compact oxide layer and bare Ti6Al4V ELI. |
topic |
transpedicular screw titania nanotubes ex vivo implantation microrupture |
url |
https://www.mdpi.com/1996-1944/13/1/176 |
work_keys_str_mv |
AT katarzynaarkusz electrochemicalevaluationofthecompactandnanotubularoxidelayerdestructionunderexvivoti6al4velitranspedicularscrewimplantation AT martanycz electrochemicalevaluationofthecompactandnanotubularoxidelayerdestructionunderexvivoti6al4velitranspedicularscrewimplantation AT ewaparadowska electrochemicalevaluationofthecompactandnanotubularoxidelayerdestructionunderexvivoti6al4velitranspedicularscrewimplantation |
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