首页> 外文期刊>绿色能源与环境:英文版 >Synergistic effect of polyoxometalate solution and TiO2 under UV irradiation to catalyze formic acid degradation and their application in the fuel cell and hydrogen evolution
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Synergistic effect of polyoxometalate solution and TiO2 under UV irradiation to catalyze formic acid degradation and their application in the fuel cell and hydrogen evolution

机译:多金属氧酸盐溶液和TiO2在紫外线辐射下催化甲酸降解的协同效应及其在燃料电池中的应用和析氢

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摘要

The synergistic effect of H3PMo12O40 or H3PW12O40 polyoxometalate solution(POM) and TiO2 to catalyze formic acid oxidation was investigated. Under UV irradiation, hole and electron were photogenerated by TiO2. Formic acid was oxided by the photogenerated hole and photogenerated electron was transferred to reduce polyoxometalate. With this design, formic acid can be converted into electricity in the fuel cell and hydrogen can be generated in the electrolysis cell without noble metal catalyst. Unlike other noble metal catalysts applied in the fuel cells and electrolysis cell, POM and TiO2 are stable and low cost. The maximum output power density of liquid formic acid fuel cell after 12 h UV irradiation is 5.21 mW/cm2 for phosphmolybdic acid and 22.81 m W/cm2 for phosphotungstic acid respectively. The applied potential for the hydrogen evolution is as low as 0.8 V for phosphmolybdic acid and 0.6 V for phosphotungstic acid.
机译:研究了H3PMo12O40或H3PW12O40多金属氧酸盐溶液(POM)和TiO2对甲酸氧化的协同作用。在紫外线照射下,TiO2光生空穴和电子。甲酸被光生空穴氧化,光生电子被转移以还原多金属氧酸盐。通过这种设计,在没有贵金属催化剂的情况下,甲酸可在燃料电池中转化为电能,并在电解池中产生氢气。与燃料电池和电解池中使用的其他贵金属催化剂不同,POM和TiO2稳定且成本低。紫外线照射12小时后,液态甲酸燃料电池的最大输出功率密度,磷钼酸为5.21 mW / cm2,磷钨酸为22.81 m W / cm2。氢释放的施加电势对于磷钼酸低至0.8 V,对于磷钨酸低至0.6V。

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  • 来源
    《绿色能源与环境:英文版》 |2017年第004期|P.436-441|共6页
  • 作者单位

    Guodian New Energy Technology Research Institute;

    School of Chemical & Biomolecular Engineering and RBI at Georgia Tech, Georgia Institute of Technology;

    Key Laboratory of Nuclear Materials and Safety Assessment, Division of Materials for Special Environments, Institute of Metal Research, Chinese Academy of Sciences;

    Guodian New Energy Technology Research Institute;

    School of Chemical & Biomolecular Engineering and RBI at Georgia Tech, Georgia Institute of Technology;

    Key Laboratory of Nuclear Materials and Safety Assessment, Division of Materials for Special Environments, Institute of Metal Research, Chinese Academy of Sciences;

    Guodian New Energy Technology Research Institute;

    School of Chemical & Biomolecular Engineering and RBI at Georgia Tech, Georgia Institute of Technology;

    Key Laboratory of Nuclear Materials and Safety Assessment, Division of Materials for Special Environments, Institute of Metal Research, Chinese Academy of Sciences;

    Guodian New Energy Technology Research Institute;

    School of Chemical & Biomolecular Engineering and RBI at Georgia Tech, Georgia Institute of Technology;

    Key Laboratory of Nuclear Materials and Safety Assessment, Division of Materials for Special Environments, Institute of Metal Research, Chinese Academy of Sciences;

    Guodian New Energy Technology Research Institute;

    School of Chemical & Biomolecular Engineering and RBI at Georgia Tech, Georgia Institute of Technology;

    Key Laboratory of Nuclear Materials and Safety Assessment, Division of Materials for Special Environments, Institute of Metal Research, Chinese Academy of Sciences;

    Guodian New Energy Technology Research Institute;

    School of Chemical & Biomolecular Engineering and RBI at Georgia Tech, Georgia Institute of Technology;

    Key Laboratory of Nuclear Materials and Safety Assessment, Division of Materials for Special Environments, Institute of Metal Research, Chinese Academy of Sciences;

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  • 原文格式 PDF
  • 正文语种 CHI
  • 中图分类 催化剂;
  • 关键词

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