Numerical Study of the Impact of Junction Depth and the Surface Recombination Velocity on Electrical Parameters of GaAs-Solar Cell

A. B. Bey, A. Talbi, M. Hebali, M. Berka, F. Ducroquet
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引用次数: 2

Abstract

Solar energy based on the solar cell is the most promising source among renewable energy sources. The photocurrent (Iph), open circuit voltage (Voc), maximum voltage (Vm), form factor (FF) and efficiency (η) of the solar cell are the most important parameters that can define the quality of this cell. In this work, we study the impact of the junction depth Xj and the surface recombination velocity Sn on these parameters in both external and internal cases of the solar cell in Arsenic gallium (GaAs) technology using the MATLAB software as a tool. Results show that in order to obtain highperformance of GaAs-solar cells must be the surface recombination velocity value is low, and the junction depth in submicron scale. Numerical results gave higher values of efficiencies 19.21 % and 30.1 % in external and internal cases respectively, and best electrical parameters of the GaAs-solar cell when the junction depth and the surface recombination velocity are equal to 0.2 μm and 102 cm/s respectively.
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结深和表面复合速度对gaas太阳能电池电参数影响的数值研究
以太阳能电池为基础的太阳能是可再生能源中最有前途的一种能源。太阳能电池的光电流(Iph)、开路电压(Voc)、最大电压(Vm)、外形系数(FF)和效率(η)是决定电池质量的最重要参数。在这项工作中,我们研究了结深度Xj和表面复合速度Sn对砷镓(GaAs)技术太阳能电池外部和内部情况下这些参数的影响,并使用MATLAB软件作为工具。结果表明,为了获得高性能的gaas太阳能电池,必须使表面复合速度值较低,且结深在亚微米尺度。数值计算结果表明,当结深为0.2 μm,表面复合速度为102 cm/s时,gaas太阳电池的效率最高,分别为19.21%和30.1%。
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