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Formation of pristine CuSCN layer by spray deposition method for efficient perovskite solar cell with extended stability

机译:通过喷涂沉积方法形成原始CUSCN层,其具有延长稳定性的高效钙钛矿太阳能电池

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By employing CuSCN, a low-cost inorganic hole transporting material (HTM), CH3NH3PbI3 perovskite solar cell (PSC) devices with high efficiency and extended stability were successfully fabricated in this work. In particular, we developed a facile method of depositing CuSCN layer reproducibly by a simple spray deposition technique, which allows the formation of the CuSCN layer without any significant damage of the underlying CH3NH3PbI3 layer. The fabricated PSC with similar to 50 nm-thick pristine CuSCN layer exhibits the photovoltaic conversion efficiency (PCE) of 17.10% with JSC of 23.10 mA/cm(2), VOC of 1,013 mV and FF of 0.731. Compared with conventional PSCs based on spiro-OMETAD HTM, the PSC employing CuSCN exhibits higher value of JSC, suggesting that CuSCN transports holes more efficiently than spiro-OMETAD. Furthermore, PSCs employing the pristine CuSCN demonstrate a remarkable long-term stability at ambient condition with the decrease of PCE by only 5.8% after 100 days. In addition, the PCE decrease during the encapsulation process at 120 degrees C was merely 13%, which is much lower value than similar to 70% observed for the conventional device based on spiroOMETAD, indicating excellent thermal stability of the CuSCN-based PSCs.
机译:通过采用CUSCN,在这项工作中成功地制造了具有高效率和延长稳定性的低成本无机空穴传输材料(HTM),CH3NH3PB13钙钛矿太阳能电池(PSC)器件。特别地,我们开发了一种通过简单的喷射沉积技术可重复地沉积CUSCN层的容易方法,这允许CUSCN层的形成而没有任何显着的CH3NH3PBI3层的损伤。具有类似于50nm厚的原始CUSCN层的制造的PSC,其光伏转化效率(PCE)为17.10%,JSC为23.10mA / cm(2),VOC为1,013 mV和0.731。与基于Spiro-Ometad HTM的传统PSC相比,采用CUSCN的PSC表现出更高的JSC值,表明CUSCN比螺欧比达更有效地运输孔。此外,采用原始CUSCN的PSC在环境条件下表现出显着的长期稳定性,在100天后仅为5.8%降低。另外,在120摄氏度下的封装过程中的PCE降低仅为13%,其值远低于基于绣线孔的传统装置观察到的70%,表明基于CUSCN的PSC的优异的热稳定性。

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