新型复合合金P-I-N太阳能电池的建模、仿真与对比研究——一种有效的能量管理方法

R. Sengupta, V. Prashant, Tapas Chakrabarti, S. Sarkar
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引用次数: 3

摘要

本文主要研究了用III-V复合材料制备PIN太阳能电池的模型。这种太阳能电池使用了两种新的复合材料。其中一种由镓铟磷化(GaInP)和铝(Al)组成,带隙能量达到4.30eV,吸收系数为1.69e-4 cm-1。另一种由砷化镓(GaAs)和铝(Al)组成,带隙能(Eg)达到4.6 eV,吸收系数为1.81e-4 cm-1。随着材料带隙能量的增加,材料可以从光源中吸收更多的光子能量,并且可以更有效地将光能转化为电能。在SILVACO TCAD虚拟制造与仿真实验室中,研制了AlGaInP/AlGaAs新型PIN太阳能电池模型。在AM1.5照度(1000太阳)下,电池的转换效率为51.50%,填充系数(FF)为91%。
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Modeling, simulation and comparative study of new compound alloy based P-I-N solar cells - An efficient way of energy management
This work is concentrated on developing a model of PIN solar cell with some III-V compound material. Two new compound materials are used in this solar cell. One of them consists of Gallium Indium Phospide (GaInP) and Aluminium (Al), which reached the band-gap energy of 4.30eV with an absorption coefficient of 1.69e-4 cm-1. Another one consists of Gallium Arsenide (GaAs) and Aluminium (Al), reaching a band gap energy (Eg) of 4.6 eV and absorption coefficient of 1.81e-4 cm-1. As the band gap energy of the material is increased, the material can absorb more photon energy from the optical source and can convert the optical energy into electrical energy more efficiently. The new modeled PIN solar cell made of AlGaInP/AlGaAs has been developed in SILVACO TCAD which is a virtual fabrication and simulation lab. The cell has achieved the conversion efficiency of 51.50% with a Fill Factor (FF) of 91% under the AM1.5 illumination (1000 suns).
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