Abstract
The highly ordered titanium dioxide nanotube coatings were produced under various electrochemical conditions on the surface of titanium foil. The anodization voltage changes proved to be a main factor which directly affects the nanotube morphology, structure, and wettability. Moreover we have noticed a significant dependence between the size and crystallinity of TiO2 layers and the adhesion/proliferation of fibroblasts and antimicrobial properties. Cellular functionality were investigated for up to 3 days in culture using a cell viability assay and scanning electron microscopy. In general, results of our studies revealed that fibroblasts adhesion, proliferation, and differentiation on the titania nanotube coatings is clearly higher than on the surface of the pure titanium foil. The formation of crystallic islands in the nanotubes structure induced a significant acceleration in the growth rate of fibroblasts cells by as much as ~200 %. Additionally, some types of TiO2 layers revealed the ability to the reduce of the staphylococcal aggregates/biofilm formation. The nanotube coatings formed during the anodization process using the voltage 4 V proved to be the stronger S. aureus aggregates/biofilm inhibitor in comparison to the unc...Continue Reading
References
Dec 18, 2001·Journal of Biomedical Materials Research·D VeltenJ Breme
Aug 31, 2002·Biomolecular Engineering·E EisenbarthH Hildebrand
Feb 27, 2004·Cell Biology International·M J DalbyA S G Curtis
Jan 18, 2005·Journal of Biomedical Materials Research. Part a·Erin E Leary SwanTejal A Desai
Apr 8, 2006·Journal of Biomedical Materials Research. Part a·Seunghan OhSungho Jin
Feb 27, 2007·Acta Biomaterialia·Kakoli DasAmit Bandyopadhyay
Apr 24, 2007·Biomaterials·Ketul C PopatTejal A Desai
May 20, 2008·Acta Biomaterialia·Sebastian BauerPatrik Schmuki
May 19, 2009·Acta Biomaterialia·Karla S BrammerSungho Jin
Oct 22, 2009·Langmuir : the ACS Journal of Surfaces and Colloids·Elena P IvanovaRussell J Crawford
Oct 24, 2009·Journal of Controlled Release : Official Journal of the Controlled Release Society·Gregor Cevc, Ulrich Vierl
Nov 3, 2009·Biomaterials·Sabrina D PuckettThomas J Webster
Mar 19, 2011·Acta Biomaterialia·Barbara S SmithKetul C Popat
Apr 26, 2011·Acta Biomaterialia·Batur ErcanThomas J Webster
Jun 16, 2011·Nanotechnology·Batur ErcanThomas J Webster
Jun 22, 2011·Odontology·Akihiro FuruhashiKiyoshi Koyano
Mar 20, 2012·Trends in Biotechnology·Karla S BrammerSungho Jin
Mar 31, 2012·Journal of Materials Science. Materials in Medicine·Amir ZareidoostAmir Amanzadeh
May 1, 2012·Acta Biomaterialia·Sepideh MinagarCuie Wen
Sep 20, 2012·Biomaterials·Rolando A GittensBarbara D Boyan
Oct 11, 2012·Biomaterials·Lingzhou ZhaoPaul K Chu
Nov 8, 2013·Nanomedicine·Taraka Sai Pavan GrandhiKaushal Rege
Jan 10, 2014·International Journal of Nanomedicine·Hangzhou ZhangXizhuang Bai
Mar 29, 2014·Biomedical Microdevices·Krzysztof CendrowskiEwa Mijowska
Citations
Apr 27, 2017·Nanomaterials·Aleksandra RadtkePiotr Piszczek
Jul 25, 2017·Nanomaterials·Aleksandra RadtkePiotr Piszczek
Nov 16, 2017·Materials·Marcus JägerHedda Luise Köhling
Sep 16, 2017·Nanomaterials·Piotr PiszczekFabrizio Fiori
Dec 14, 2018·International Journal of Molecular Sciences·Aleksandra RadtkePiotr Piszczek
Mar 13, 2019·Journal of Clinical Medicine·Aleksandra RadtkePatrycja Golińska
Jan 30, 2020·Journal of Clinical Medicine·Piotr PiszczekWaldemar Jedrzejczyk
Mar 1, 2019·Journal of Clinical Medicine·Aleksandra RadtkeMichał Bartmański
Jan 24, 2019·Nanomaterials·Aleksandra RadtkePiotr Piszczek
Nov 29, 2016·Expert Opinion on Drug Delivery·Karan Gulati, Sašo Ivanovski
Sep 14, 2018·Nanomaterials·Aleksandra RadtkeTomasz Jędrzejewski
Feb 6, 2019·Biological Procedures Online·Sabrina Friebe, Stefan G Mayr
Sep 22, 2017·Nanomaterials·Aleksandra RadtkePiotr Piszczek
May 15, 2021·Expert Opinion on Drug Delivery·Dusan Losic
Oct 14, 2021·Odontology·Mustafa Kutay KaracaOsman Gurdal
Oct 26, 2021·Frontiers in Cellular and Infection Microbiology·Jagjit Singh DhaliwalRubens Ferreira Albuquerque Junior