不同波长和强度光浸泡对Cz-Si PERC电池光致降解的影响

C. Wu, Yen-Chun Lee, Li-Chieh Yu, M. Tsai, Hung-Sen Wu, C. Kuo, T. Kuan, C. Yu, P. Yu
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摘要

我们对Cz-Si PERC电池的LID加速因素进行了多项分析,包括温度、强度和396nm和969nm波长。在高载流子注入下,由于消除了B-O LID,在130°C下,1 SUN下LID的恢复时间缩短到4小时,Pmax的最大降解小于3%。然而,更高的强度似乎无法阻止第二次退化的发生,这表明其他缺陷的形成。因此,我们采用不同波长的LED光源,并得到两者的Pmax最大退化有很大的不同。结果表明,LID的行为可能源于载体所在的特定位置(穿透深度)。
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Influence on light-induced degradation in Cz-Si PERC cells under light soaking of variant wavelength and intensity
We have carried out multiple analysis on the acceleration factors of LID for Cz-Si PERC cells, including temperatures, intensities and wavelengths at 396nmand 969nm. The recovery time of LID at 130 ° C under 1 SUN shrinks down to 4 hrs and the maximum degradation in Pmax is less than 3 % due the elimination of B-O LID under high carrier-injection. However, it seems that higher intensities couldn’t stop the second degradation from happening, indicating the formation of other defects. Therefore, we employ LED light source of different wavelengths and obtain that both maximum degradation of Pmax are quite different. The consequence implies that behavior of LID might be originated from the particular position (penetration depth) where carriers are located.
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