提高太阳能电池效率的GaInAsN/GaAs结构研究

A. Aissat, R. Bestam, S. Naser, J. Vilcot
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引用次数: 0

摘要

这项工作的目的是基于Ga1-xInxAs1-yNy/GaAs结构的建模和仿真,用于太阳能电池的应用。采用理论模型研究了铟(In)掺入量和氮(N)浓度对GaInAsN材料的影响。为了实现这一思想,我们开发了一个模拟程序,考虑In < 25%和N < 4%的影响,确定应变对能带能的影响。在本研究中,我们使用了带抗交叉(BAC)模型。事实上,应变降低了带隙能量,氮的掺入将导带分成两个子带E+和E-。在适当的条件下,我们还处理了铟和氮浓度对GaInAsN/GaAs结构吸收系数的影响。根据一定的顺序,这两种物质浓度In和N的增加导致吸收系数的增加。这项工作使我们能够优化In和N浓度,以提高效率η= 22%,应变等于基于GaInAsN/GaAs结构的太阳能电池的1.5%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Study of the GaInAsN/GaAs Structure for Improve the Efficiency of Solar Cell
The objective of this work is based on the modeling and simulation of the Ga1-xInxAs1-yNy/GaAs structure, for solar cell applications. Theoretical model was used to study the effects of the indium (In) incorporation and nitrogen (N) concentration in the GaInAsN material. In order to implement this idea, a simulation program was developed to determine the strain effect on the band energy by taking into consideration the influence of In < 25% and N < 4%. In this study we have used the Band Anti-Crossing (BAC) model. Indeed, the strain reduces the band gap energy, and the nitrogen incorporation splits the conduction band into two subbands E+ and E-. In the correct condition, we also treated the impact of indium and nitrogen concentrations on the absorption coefficient of the GaInAsN/GaAs structure. According to a particular sequence, the raise of these both materials concentrations In and N results in the increase of the absorption coefficient. This work allowed us to optimize the In and N concentrations to raise the efficiency η= 22%, with strain equal to 1.5% of the solar cell based on the GaInAsN/GaAs structure.
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