Electrochemical stability of anodic titanium oxide films grown at potentials higher than 3V in a simulated physiological solution

Photo-electrochemical investigation of anodic oxide films on cast Ti–Mo alloys. I. Anodic behaviour and effect of alloy composition

“…Finally we want to comment the presence of a current hump in the anodizing curves at electrode potentials close to 2 V(MSE): this phenomenon was absent for electropolished pure Ti [20,21], but it was observed sometimes on mechanically polished Ti samples [40][41][42], whilst in other cases not [43,44]. Based on charge measurements during the potentiodynamic oxide formation, some authors [40,41] attribute this hump to a further oxidation of the film, from Ti 2 O 3 (formed at very low potentials), to TiO 2 .…”

“…Based on charge measurements during the potentiodynamic oxide formation, some authors [40,41] attribute this hump to a further oxidation of the film, from Ti 2 O 3 (formed at very low potentials), to TiO 2 . Raman, SERS and XPS measurements have revealed the presence of Ti 2 O 3 into corrosion layers or thin anodic films on Ti [25,42,[45][46][47].…”

Effect of Mo content on electrochemical behaviour of TiMo alloys for dental applications

“…For all the samples, the potential sweep in positive direction shows an anodic current starting at negative potential that corresponds to the formation of titanium oxides [49][50][51][52]. Figure 6 shows typical SEM images of the resulting surface oxide films after anodic polarization in mouthwash solution for Ti12Mo and Ti40Mo alloys.…”

Oxidative stress and antioxidant responses of liver and kidney tissue after implantation of titanium or titanium oxide coated plate in rat tibiae

“…Studies of blood plasma protein interactions with titanium oxides are a possible way to understand the interaction of foreign surfaces with blood better and also their integration in tissue, since blood is the first medium encountered during the surgical procedure and thus governs the subsequent cell attachment and wound healing [17,18]. Based on repetitive oxidationreduction processes can be concluded that the created amount of TiO 3 inside of the TiO 2 surface layer seems to be constant [19].…”