The Experts below are selected from a list of 321 Experts worldwide ranked by ideXlab platform

Yuliang Li - One of the best experts on this subject based on the ideXlab platform.

Weisheng Guan - One of the best experts on this subject based on the ideXlab platform.

Shuji Hanada - One of the best experts on this subject based on the ideXlab platform.

  • photoactivity of an anodized biocompatible tinbsn alloy prepared in Sodium Tartrate hydrogen peroxide aqueous solution
    Applied Surface Science, 2021
    Co-Authors: Naoya Masahashi, Yu Mori, Hiroaki Kurishima, Hiroyuki Inoue, T Mokudai, Satoshi Semboshi, M Hatakeyama, Eiji Itoi, Shuji Hanada
    Abstract:

    Abstract A bioactive TiNbSn alloy was anodized in an electrolyte of Sodium Tartrate containing hydrogen peroxide (H2O2). The photo-induced characteristics of the anodized alloy were explored by focusing on its crystallinity and electrochemical conditions. The electrolysis curve of the anodization exhibited a higher voltage in the TiNbSn substrate than in the pure Ti substrate. Highly crystallized porous rutile-structured TiO2 was formed on TiNbSn, whereas relatively low-crystallized glassy anatase-structured TiO2 was formed on Ti. The absorption spectra of the oxide, formed on TiNbSn, revealed a steep absorption decrease with increasing wavelength while an explicit transition was not observed for the oxide formed on Ti. The anodized TiNbSn alloy exhibited superior photoactivity and generated hydroxyl radicals under ultraviolet (UV) illumination. The photoactivity of the anodized TiNbSn was attributed to TiO2, which was highly crystallized by the application of a high voltage, thus suppressing the recombination of the photogenerated carriers.

  • Photoactivity of an anodized biocompatible TiNbSn alloy prepared in Sodium Tartrate / hydrogen peroxide aqueous solution
    Applied Surface Science, 2021
    Co-Authors: Naoya Masahashi, Yu Mori, Hiroaki Kurishima, Hiroyuki Inoue, T Mokudai, Satoshi Semboshi, M Hatakeyama, Eiji Itoi, Shuji Hanada
    Abstract:

    Abstract A bioactive TiNbSn alloy was anodized in an electrolyte of Sodium Tartrate containing hydrogen peroxide (H2O2). The photo-induced characteristics of the anodized alloy were explored by focusing on its crystallinity and electrochemical conditions. The electrolysis curve of the anodization exhibited a higher voltage in the TiNbSn substrate than in the pure Ti substrate. Highly crystallized porous rutile-structured TiO2 was formed on TiNbSn, whereas relatively low-crystallized glassy anatase-structured TiO2 was formed on Ti. The absorption spectra of the oxide, formed on TiNbSn, revealed a steep absorption decrease with increasing wavelength while an explicit transition was not observed for the oxide formed on Ti. The anodized TiNbSn alloy exhibited superior photoactivity and generated hydroxyl radicals under ultraviolet (UV) illumination. The photoactivity of the anodized TiNbSn was attributed to TiO2, which was highly crystallized by the application of a high voltage, thus suppressing the recombination of the photogenerated carriers.

Luis Henrique Mendes Da Silva - One of the best experts on this subject based on the ideXlab platform.

  • Measurement and Modeling of Phase Equilibrium in Aqueous Two-Phase Systems: L35 + Sodium Citrate + Water, L35 Sodium Tartrate + Water, and L35 + Sodium Hydrogen Sulfite + Water at Different Temperatures
    Journal of Chemical & Engineering Data, 2012
    Co-Authors: Luciano Sindra Virtuoso, Karla A. S. F. Vello, Aline A. De Oliveira, Cristina Mazzeu Junqueira, Anderson F. Mesquita, Nelson H. T. Lemes, Raquel Moreira Maduro De Carvalho, Maria Do Carmo Hespanhol Da Silva, Luis Henrique Mendes Da Silva
    Abstract:

    Phase diagrams have been determined for aqueous two-phase systems containing (EO)11(PO)16(EO)11, notation L35 (50% EO), and Sodium citrate, Sodium Tartrate, or Sodium hydrogen sulfite at different temperatures. The influences of the temperature and anion on the behavior of these systems were also analyzed. The temperature effect on the position of the binodal curves for systems containing Sodium citrate and Tartrate was not relevant, indicating a small enthalpy contribution associated with the phase separation. However, an enthalpic contribution for the phase splitting of the systems formed by Sodium hydrogen sulfite was observed. The ability of these three salts to induce the formation of a biphasic system with L35 followed the order Sodium citrate > Sodium Tartrate > Sodium hydrogen sulfite. In this work, the nonrandom two-liquid (NRTL) model was used to obtain new interaction energy parameters. The results were analyzed using root-mean-square deviations between experimental and calculated data in equil...

  • measurement and modeling of phase equilibrium in aqueous two phase systems l35 Sodium citrate water l35 Sodium Tartrate water and l35 Sodium hydrogen sulfite water at different temperatures
    Journal of Chemical & Engineering Data, 2012
    Co-Authors: Luciano Sindra Virtuoso, Karla A. S. F. Vello, Aline A. De Oliveira, Cristina Mazzeu Junqueira, Anderson F. Mesquita, Nelson H. T. Lemes, Raquel Moreira Maduro De Carvalho, Maria Do Carmo Hespanhol Da Silva, Luis Henrique Mendes Da Silva
    Abstract:

    Phase diagrams have been determined for aqueous two-phase systems containing (EO)11(PO)16(EO)11, notation L35 (50% EO), and Sodium citrate, Sodium Tartrate, or Sodium hydrogen sulfite at different temperatures. The influences of the temperature and anion on the behavior of these systems were also analyzed. The temperature effect on the position of the binodal curves for systems containing Sodium citrate and Tartrate was not relevant, indicating a small enthalpy contribution associated with the phase separation. However, an enthalpic contribution for the phase splitting of the systems formed by Sodium hydrogen sulfite was observed. The ability of these three salts to induce the formation of a biphasic system with L35 followed the order Sodium citrate > Sodium Tartrate > Sodium hydrogen sulfite. In this work, the nonrandom two-liquid (NRTL) model was used to obtain new interaction energy parameters. The results were analyzed using root-mean-square deviations between experimental and calculated data in equil...

Naoya Masahashi - One of the best experts on this subject based on the ideXlab platform.

  • photoactivity of an anodized biocompatible tinbsn alloy prepared in Sodium Tartrate hydrogen peroxide aqueous solution
    Applied Surface Science, 2021
    Co-Authors: Naoya Masahashi, Yu Mori, Hiroaki Kurishima, Hiroyuki Inoue, T Mokudai, Satoshi Semboshi, M Hatakeyama, Eiji Itoi, Shuji Hanada
    Abstract:

    Abstract A bioactive TiNbSn alloy was anodized in an electrolyte of Sodium Tartrate containing hydrogen peroxide (H2O2). The photo-induced characteristics of the anodized alloy were explored by focusing on its crystallinity and electrochemical conditions. The electrolysis curve of the anodization exhibited a higher voltage in the TiNbSn substrate than in the pure Ti substrate. Highly crystallized porous rutile-structured TiO2 was formed on TiNbSn, whereas relatively low-crystallized glassy anatase-structured TiO2 was formed on Ti. The absorption spectra of the oxide, formed on TiNbSn, revealed a steep absorption decrease with increasing wavelength while an explicit transition was not observed for the oxide formed on Ti. The anodized TiNbSn alloy exhibited superior photoactivity and generated hydroxyl radicals under ultraviolet (UV) illumination. The photoactivity of the anodized TiNbSn was attributed to TiO2, which was highly crystallized by the application of a high voltage, thus suppressing the recombination of the photogenerated carriers.

  • Photoactivity of an anodized biocompatible TiNbSn alloy prepared in Sodium Tartrate / hydrogen peroxide aqueous solution
    Applied Surface Science, 2021
    Co-Authors: Naoya Masahashi, Yu Mori, Hiroaki Kurishima, Hiroyuki Inoue, T Mokudai, Satoshi Semboshi, M Hatakeyama, Eiji Itoi, Shuji Hanada
    Abstract:

    Abstract A bioactive TiNbSn alloy was anodized in an electrolyte of Sodium Tartrate containing hydrogen peroxide (H2O2). The photo-induced characteristics of the anodized alloy were explored by focusing on its crystallinity and electrochemical conditions. The electrolysis curve of the anodization exhibited a higher voltage in the TiNbSn substrate than in the pure Ti substrate. Highly crystallized porous rutile-structured TiO2 was formed on TiNbSn, whereas relatively low-crystallized glassy anatase-structured TiO2 was formed on Ti. The absorption spectra of the oxide, formed on TiNbSn, revealed a steep absorption decrease with increasing wavelength while an explicit transition was not observed for the oxide formed on Ti. The anodized TiNbSn alloy exhibited superior photoactivity and generated hydroxyl radicals under ultraviolet (UV) illumination. The photoactivity of the anodized TiNbSn was attributed to TiO2, which was highly crystallized by the application of a high voltage, thus suppressing the recombination of the photogenerated carriers.