Ultrathin ALD Coatings of Zr and V Oxides on Anodic TiO Nanotube Layers: Comparison of the Osteoblast Cell Growth.

The current study investigates and compares the biological effects of ultrathin conformal coatings of zirconium dioxide (ZrO) and vanadium pentoxide (VO) on osteoblastic MG-63 cells grown on TiO nanotube layers (TNTs). Coatings were achieved by the atomic layer deposition (ALD) technique. TNTs with average tube diameters of 15, 30, and 100 nm were fabricated on Ti substrates (via electrochemical anodization) and were used as primary substrates for the study.

Enhancement of biocompatibility of anodic nanotube structures on biomedical Ti-6Al-4V alloy via ultrathin TiO coatings.

This work aims to describe the effect of the surface modification of TiO nanotube (TNT) layers on Ti-6Al-4V (TiAlV) alloy by ultrathin TiO coatings prepared via Atomic Layer Deposition (ALD) on the growth of MG-63 osteoblastic cells. The TNT layers with two distinctly different inner diameters, namely ∼15 nm and ∼50 nm, were prepared via anodic oxidation of the TiAlV alloy. Flat, i.

2D TiO Nanosheets Decorated Via Sphere-Like BiVO: A Promising Non-Toxic Material for Liquid Phase Photocatalysis and Bacterial Eradication.

An in-depth investigation was conducted on a promising composite material (BiVO/TiO), focusing on its potential toxicity, photoinduced catalytic properties, as well as its antibiofilm and antimicrobial functionalities. The preparation process involved the synthesis of 2D TiO using the lyophilization method, which was subsequently functionalized with sphere-like BiVO through wet impregnation. Finally, we developed BiVO/TiO S-scheme heterojunctions which can greatly promote the separation of electron-hole pairs to achieve high photocatalytic performance.

Ultrathin TiO Coatings via Atomic Layer Deposition Strongly Improve Cellular Interactions on Planar and Nanotubular Biomedical Ti Substrates.

This work aims to investigate the chemical and/or structural modification of Ti and Ti-6Al-4V (TiAlV) alloy surfaces to possess even more favorable properties toward cell growth. These modifications were achieved by (i) growing TiO nanotube layers on these substrates by anodization, (ii) surface coating by ultrathin TiO atomic layer deposition (ALD), or (iii) by the combination of both. In particular, an ultrathin TiO coating, achieved by 1 cycle of TiO ALD, was intended to shade the impurities of F- and V-based species in tested materials while preserving the original structure and morphology.