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Effect of parasitic absorption of the plasmonic cubic nanoparticles on the performance of a plasmonic assisted halide thin-film perovskite solar cell

机译:等离子体立方纳米粒子寄生吸收对等粒子辅助卤化物薄膜钙钛矿太阳能电池性能的影响

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In the current investigation, the plasmonic nano-cubes were used to improve the absorption of an organicinorganic hybrid crystalline-based CH3NH3PbX3 perovskite solar cell. One of the critical challenges of plasmonic nanoparticles is their parasitic absorption that would compensate or even surpass the effect of plasmonic nanoparticles. So, the effects of parasitic absorption inside the nanoparticles were evaluated. By incorporating the plasmonic effect of nano-cubes, the parasitic absorption of Al and Ag nano-cubes and the absorption spectrum of the perovskite absorber were calculated. The parasitic absorption of nano-cubes was subtracted, and net absorption was obtained before calculating the photocurrents. Optimization is done to find the best nano-cubes edges and the period of the unit cell. Using Al and Ag nano-cubes increases the photocurrent increase to 23 mA/ cm2, and 22 mA/cm2 in a cell with a thickness of 200 nm, respectively. The photocurrent of the reference cell is 17.70 mA/cm2. So, the enhancement factors of 29%, and 24.3% were obtained for them in comparison to the reference cell, respectively. Moreover, the boosted photon absorption was confirmed through the electrical field distribution and the profiles of generation rate. The results can be used to establish some guidelines for a realistic understanding of plasmonic resonance-based photovoltaic devices.
机译:在目前的研究中,等离子体纳米立方体用于改善有机杂交晶体基CH3NH3PBX3钙酸盐太阳能电池的吸收。等离子体纳米粒子的临界挑战之一是它们的寄生吸收,其将补偿或甚至超越等离子体纳米颗粒的效果。因此,评价纳米颗粒内寄生吸收的影响。通过纳入纳米立方体的等离子体效应,计算Al和Ag纳米立方体的寄生吸收和钙钛矿吸收剂的吸收光谱。减去纳米立方体的寄生物质吸收,并在计算光电载量之前获得净吸收。完成优化以找到最佳的纳米立方体边缘和单位单元的时段。使用Al和Ag纳米立方体将光电流增加到23mA / cm 2,22mA / cm 2分别在厚度为200nm的细胞中。参考电池的光电流为17.70mA / cm2。因此,与参考细胞相比,为它们获得了29%和24.3%的增强因子。此外,通过电场分布和生成速率的轮廓确认了升压光子吸收。结果可用于建立一些关于基于等离子体谐振的光伏器件的现实理解的指导。

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