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Rapid and large-scale synthesis of Cu nanowires via a continuous flow solvothermal process and its application in dye-sensitized solar cells (DSSCs)

机译:连续流溶剂热法快速大规模合成铜纳米线及其在染料敏化太阳能电池(DSSC)中的应用

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摘要

Single crystalline copper nanowires with pentagonal cross sections and large aspect ratios have been successfully prepared in high yield via a continuous flow solvothermal reduction process at a low temperature. The highly crystalline filaments exhibit the face-centered cubic structure, growing mainly along the [110] direction. Both PVP and the solvent environment play an important role for the growth of nanowires. The growth mechanism has been properly discussed. We also report the flexible transparent Cu nanowire membrane electrode fabricated by coating a polymer layer as a potential replacement for the conventional FTO electrode in dye-sensitized solar cells (DSSCs). Fabricated CuNW membranes exhibit high optical transmittance and electrical conductance, which can be controlled via the synthesis process, conveniently. The efficiency of a DSSC with CuNWs increases upto 5%. The DSSC performs as well as with a FTO electrode, which indicates that the super-high aspect ratio of the Cu nanowires offers a range of electrical transport routes to connect dye loaded photo-anodes, and such an electrode has the potential to replace conventional FTO electrodes for low-cost DSSCs applications.
机译:通过在低温下连续流动的溶剂热还原工艺,已经成功地高产率地制备了具有五边形横截面和大纵横比的单晶铜纳米线。高度结晶的长丝表现出以面心为中心的立方结构,主要沿[110]方向生长。 PVP和溶剂环境都对纳米线的生长起着重要作用。增长机制已经过适当讨论。我们还报告了通过涂覆聚合物层制成的柔性透明铜纳米线膜电极,作为染料敏化太阳能电池(DSSC)中常规FTO电极的潜在替代品。制成的CuNW膜具有很高的透光率和电导率,可以方便地通过合成过程进行控制。带有CuNW的DSSC的效率提高了5%。 DSSC的性能与FTO电极一样好,这表明Cu纳米线的超高长宽比提供了一系列电传输路径,以连接染料加载的光阳极,并且这种电极具有取代传统FTO的潜力低成本DSSC应用的电极。

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