本研究是利用多元醇法（polyol route）製備銅銦硫(CuInS, CIS)、銅銦硒(CuInSe,CISe)、硫化鋅(ZnS)及硒化鋅 (ZnSe)等奈米粒子，經過X光粉晶繞射儀(X-Ray Diffraction)等其他分析，確認材料性質，摻入高分子有機半導體化合物中， 作為複合太陽能電池之主動層材料，透過調整製程中的膜厚與溫度，以及不同溶劑與濃度比例等參數，達到最佳化的複合太陽能電池。在製備複合太陽能電池，目前做到到最高效率為0.01%，主要導致光電轉換效率仍不高的原因，是由於在奈米粒子與高分子之間的介面上有相的差異，除了以上參數的調整，本研究還針對奈米粒子的表面做改質以及奈米粉末合成的比例，朝這些方向做改善，希望能進一步達到更高效率的複合太陽能電池。目前除了介面上的問題以外，還有材料在能階上匹配的問題，導致原件效率仍有很大的改善空間。

In this study, polyol route were used to prepare copper indium sulfide (CuInS, CIS), copper indium selenium (CuInSe, CISe), zinc sulfide (ZnS) and zinc selenium (ZnSe) and other nanoparticles. Through the X-ray diffraction and other analysis to confirmed the material properties. Incorporation of polymer organic semiconductor compounds as the active layer of hybrid solar cells. In order to achieve the best performance of the hybrid solar cells, this could be done by the adjustment process in the film thickness and temperature, and various solvents and concentration ratio and other parameters.
In the preparation of hybrid solar cells, the highest efficiency of the present is 0.01%. The main reasons cause low power conversion efficiency is due to polymer and nanoparticles have phase difference between interfaces. In addition to the above parameters can be adjusted. The study also aimed at the surface modification of the nanoparticles, and the ratio of nanoparticles synthesis. Make improvements in these directions, and hopes to further achieve higher efficiency of hybrid solar cells. Except interface issues, the bandgap of material to match also is an issue. Resulting in the efficiency of device is still much room for improvement.

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