提高太阳能电池效率的金纳米粒子- pvp基涂层

Ian Sear, Marine Gasulla, A. Alemu, A. Freundlich
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引用次数: 1

摘要

在这项工作中,我们报告了一种基于溶液的金胶体纳米颗粒和聚乙烯吡咯烷酮(PVP)的简单自旋涂层技术的优化,并评估了提高薄基(<1微米)传统p/n GaAs和InP/InAsP多量子阱(MQW) p-i-n太阳能电池效率的潜力。利用反射光谱和椭偏光谱分析了涂层的光学性能。实验证明,该方法能显著提高所研究器件的性能。量子效率和反射率分析表明,近带边缘和带隙以下(MQW)转换效率增加,总反射损耗减少。所提出的工艺被证明是可逆的(非侵入性溶剂基涂层去除的可能性),并且能够改善器件电流输出和填充因子。传统的GaAs p/n和InP p- mqw -n器件的AM0效率显著提高,对于涂覆AuNP-PVP和PVP的样品都有记录。然而,分析表明,IV特性的主要改善与PVP相关的抗反射涂层效应有关。
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Gold nanoparticle-PVP based coating for efficiency enhancement of solar cells
In this work we report on the optimization of a simple-spin coating technique using solution based Au colloidal nanoparticles and polyvinylpyrrolidone (PVP) and evaluate the potential for improving the efficiency of thin-base (<1 micron) conventional p/n GaAs and InP/InAsP multi quantum well (MQW) p-i-n solar cells. Optical properties of the coatings are analyzed by reflectance spectroscopy and spectroscopic ellipsometry. It is experimentally demonstrated that the approach yields to a remarkable improvement of the performance of studied devices. Quantum efficiency and reflectance analysis show an increase of the near-band edge and below bandgap (MQW) conversion efficiencies as well as a decrease of overall reflection losses. The proposed process is shown to be reversible (possibility of non-intrusive solvent based coating removal) and capable of improving device current outputs and fill factors. Significant AM0 efficiency increases for the conventional GaAs p/n and InP p-MQW-n devices are recorded both for samples coated with AuNP-PVP and PVP. However analysis indicate that the main improvement in IV characteristics is to be associated with a PVP related antireflect-coating effect.
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