用于有机太阳能电池高效能量转换的氧化锌纳米结构

M. F. Nurfazliana, S. Kamaruddin, M. S. Alias, N. Nafarizal, H. Saim, M. Z. Sahdan
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引用次数: 1

摘要

提出了一种利用氧化锌纳米结构作为有机太阳能电池萃取层材料的溶液处理新方法。它与所有类型的有机共混物具有较低的化学反应相容性,并且在ITO/玻璃基板表面和活性层(共混物)表面都具有良好的附着力。研究了薄膜的厚度和形貌等参数,证明了这些因素对有机太阳能电池的效率有很大影响。在这项工作中,使用厚度约为53 nm的ZnO层作为中间层来防止电极和聚合物层之间的针孔。将聚合物层包覆在氧化锌层上,厚度约为150 nm。由于溶剂的作用,较厚的聚合物层会形成不均匀的表面,1-2二氯苯会腐蚀掉聚合物层的某些区域,形成针孔。ZnO纳米结构层用于防止聚合物层与电极之间的针孔。从ZnO层的表面形貌来看,ZnO层表面均匀,晶粒尺寸在50 ~ 100 nm之间。中间层的存在对太阳能电池的电特性有积极的影响。结果表明,厚度小于150 nm的有机太阳能电池性能最佳,效率为0.0067%,填充系数(FF)约为19.73。
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Zinc Oxide Nanostructures for Efficient Energy Conversion in Organic Solar Cell
We present a new approach of solution-processed using zinc oxide (ZnO) nanostructures as extraction layer material for organic solar cells. It is low chemical reaction compatibility with all types of organic blends and its good adhesion to both surfaces of ITO/glass substrate and the active layer (blends). Parameters such as the thickness and the morphology of the films were investigated to prove that these factors greatly affect the efficiency of organic solar cells. In this work, ZnO layer with thickness of approximately 53 nm was used as an interlayer to prevent pin-holes between the electrode and the polymer layer. The polymer layer was coated on the ZnO layer with the thickness of about 150 nm. The thick polymer layer will form a non-uniform surface because of the solvent, 1-2dichlorobenzene will etch away some region of the polymer layer and forming pin-holes. ZnO nanostructures layer was used to prevent pin-holes between the polymer layer and electrode. From the surface morphology of ZnO layer, it shows a uniform surface with particle grain size obtained between 50 -100 nm. The presence of the interlayer has a positive effect on the electrical characteristics of the solar cells. It was found that an organic solar cell with thickness less than 150 nm shows the optimum performance with efficiency of 0.0067% and Fill Factor (FF) of about 19.73.
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