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首页> 外文期刊>The journal of physics and chemistry of solids >Device modeling approach and simulation of the effect of the ODC thin layer on bifacial solar cells based on CuInl-xGaxSe2 thin films absorbers
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Device modeling approach and simulation of the effect of the ODC thin layer on bifacial solar cells based on CuInl-xGaxSe2 thin films absorbers

机译:基于Cuinl-XgaxSe2薄膜吸收剂的双型太阳能电池ODC薄层效果的装置建模方法及模拟

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摘要

In this work, thin films of In2Se3, which are employed for bifacial CIGS solar cell applications, are grown onto coated soda lime glass (SLG) substrates using physical vapor deposition (PVD) technique. Their structural, optical, and electrical properties are also illustrated. In addition, the device of bifacial CIGS thin film solar cells is studied. To employ the one-dimensional modeling tool analysis of microelectronic and photonic structures, we use the simulator (AMPS-1D) to numerically analyze the performances of bifacial CIGS solar cells. We show the role of the formation of the ordered defect compound (ODC) layer between the buffer layer and the absorber part on the performance of the device. The obtained results show that this defect layer is important in the photovoltaic performance of CIGS device. To optimize the bifacial cells, the simulated results show that the optimal thickness of ODC and the defect density are in the ranges 400-600 nm and 1 x 10(14) - 10(15) cm(-3), respectively. Thus, the results indicate that the ODC had an optimal bandgap above 1.3 eV. The conversion efficiencies exceeding 16% and 14% were obtained with illumination from the front and back contacts, respectively.
机译:在该作品中,使用物理气相沉积(PVD)技术在涂覆的苏打石灰玻璃(SLG)基板上生长在双脉冲CIGS太阳能电池应用中的IN2SE3的薄膜。还示出了它们的结构,光学和电性能。另外,研究了双相CIGS薄膜太阳能电池的装置。为了采用微电子和光子结构的一维建模工具分析,我们使用模拟器(AMPS-1D)来数值分析双脉冲CIGS太阳能电池的性能。我们展示了在缓冲层和吸收器部分之间形成有序缺陷化合物(ODC)层的作用,对装置的性能。所得结果表明,该缺陷层在CIGS器件的光伏性能方面是重要的。为了优化双接种细胞,模拟结果表明ODC的最佳厚度和缺陷密度分别位于400-600nm和1×10(14) - 10(15 )cm(-3)的范围内。因此,结果表明,ODC在1.3eV以上具有最佳的带隙。超过16%和14%的转化效率分别从前后接触的照明获得。

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