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首页> 外文期刊>Journal of Solid State Electrochemistry >Hybrid organic/inorganic films of conducting polymers modified with phthalocyanines. I—Film preparation and voltammetric studies
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Hybrid organic/inorganic films of conducting polymers modified with phthalocyanines. I—Film preparation and voltammetric studies

机译:用酞菁改性的导电聚合物的杂化有机/无机薄膜。 I—胶片制备和伏安研究

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Conducting polymers were deposited on the surface of platinum and glassy carbon electrodes. The monomers used were N-methyl pyrrole and 3-methyl thiophene. The electrochemical synthesis of the polymer was achieved using constant applied potential or cyclic polarization techniques in acetonitrile as a solvent and tetra-alkyl ammonium salts as supporting electrolyte. The resulting conducting polymeric film was modified with an inorganic metal complex, namely, Cu–phthalocyanine or Co–phthalocyanine. Two different approaches were adopted for the modification: (1) the first was to directly apply the metal–phthalocyanine layer on the surface of the polymer, and (2) the second was by the inclusion of the metal–phthalocyanine in a sol–gel matrix that was in turn applied to the conducting polymer film. In the first part of this work, we studied the effect of changing the type of polymer matrix and the central metal of the inorganic complex on the electrochemical behavior of the resulting film. We also found that changing the method of metal–phthalocyanine application to the polymer film affected the electrochemical response and kinetics at the electrode surface. The new electrode was tested for the reduction of hydrogen peroxide and showed better conversion efficiency compared to conventional surfaces, which suggests its use in fuel cell applications.
机译:导电聚合物沉积在铂和玻璃碳电极的表面。所使用的单体是N-甲基吡咯和3-甲基噻吩。在乙腈为溶剂,四烷基铵盐为支持电解质的条件下,使用恒定施加电势或环状极化技术,可实现聚合物的电化学合成。所得的导电聚合物膜用无机金属配合物(即Cu-酞菁或Co-酞菁)改性。修改采用了两种不同的方法:(1)第一种是直接在聚合物表面上应用金属-酞菁层,(2)第二种是通过在溶胶-凝胶中包含金属-酞菁依次施加到导电聚合物薄膜上的基质。在这项工作的第一部分中,我们研究了改变聚合物基体类型和无机配合物中心金属对所得膜电化学行为的影响。我们还发现,改变金属-酞菁应用于聚合物膜的方法会影响电极表面的电化学响应和动力学。测试了新电极的过氧化氢还原性能,并显示出比传统表面更好的转化效率,这表明该新电极可用于燃料电池。

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