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Comparative electrochemical investigation of zinc based nano-composite anode materials for solid oxide fuel cell

机译:基于锌的固体氧化物燃料电池锌基纳米复合阳极材料的比较电化学研究

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摘要

The structural and electrochemical properties of zinc based nano-composites anode materials with a composition of X0.25Ti0.5Zn0.70 (where X = Cu, Mn, Ag) have been investigated in this present study. The proposed Xo.zsTiousZno.70 oxide materials have been synthesized through sol-gel method. The doping effect of Cu, Mn, and Ag on TiZn oxides were analyzed in terms of electronic conduction and power density in hydrogen atmosphere at comparatively low temperature in the range of 650 degrees C. The crystal structure and surface morphology were examined by X-ray diffraction (XRD) and scanning electron microscopy (SEM) analysis techniques. The XRD patterns of composites depict that the average crystalline sizes lie in the range of 20-100 nm. Four -probe DC conductivity technique was used to measure the conductivity of the materials and maximum electrical conductivity of Ag0.25Ti0.05Zn0.70 oxide was found to be 7.81 S/cm at 650 degrees C. The band gap and absorption spectra were determined by ultra-violet visible (UV-Vis) and Fourier Transform Infrared spectroscopy (FTIR) techniques respectively. The maximum power density was achieved to be 354 mW/cm(2) at 650 degrees C by Ag0.25Ti0.05Zn0.70 oxide anode with SDC (electrolyte) and BSCF (conventional cathode) materials.
机译:本研究已经研究了锌基纳米复合材料的结构和电化学性能X0.25TI0.5ZN0.70.70(其中X = Cu,Mn,Ag)的阳极材料。通过溶胶 - 凝胶法合成了所提出的XO.ZstiousZnO.70氧化物材料。在650℃的相对低温下的电子传导和电力密度方面分析了Cu,Mn和Ag对Tizn氧化物上的掺杂效应。通过X射线检查晶体结构和表面形态衍射(XRD)和扫描电子显微镜(SEM)分析技术。复合材料的XRD图案描绘了平均结晶尺寸在20-100nm的范围内。使用四个-probe DC电导率技术来测量材料的电导率和Ag0.25Ti0.05Zn0.70.70氧化物的最大电导率在650℃下发现7.81 s / cm。带隙和吸收光谱法超紫色可见(UV-VI)和傅里叶变换红外光谱(FTIR)技术。通过SDC(电解质)和BSCF(常规阴极)材料,在650℃下以650℃,最大功率密度在650℃下以354mW / cm(2)达到354mW / cm(2)。

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