反向硅太阳能电池

D. Palmeri, G. Martinelli , G.C. Cecchi, M.C. Carotta, M. Merli, L. Passari, R. van Steenwinkel
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引用次数: 4

摘要

为了提高由薄晶片(小于等于200 μm)制成的大面积太阳能电池的效率,在不消除厚膜工艺顺序的情况下,开发了一种创新的后结电池,在发光侧具有前接触网格。与传统电池相比,反向电池的主要优点如下:1.(1)由于有机会形成较浅的前表面p +层而没有接触金属化泄漏的风险,因此反向电池适合收集反射在背面的长波长光,同时也适合收集短波长的光。2.(2)前后触点的串联电阻可以大大降低。在这项工作中,我们进行了反电池生产的工艺序列:到目前为止,我们的最佳填充系数为78%,这可能是使用厚膜技术获得的最高值。此外,我们利用数值模拟分析了谱响应度、短路电流以及效率与前表面场深度的关系。研究了短路电流随寿命增加的变化规律。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A reverse silicon solar cell

In order to increase the efficiency of large-area solar cells made from thin (less than or equal to 200 μm) crystal wafers, without eliminating the thick film process sequence, an innovative back junction cell with a front contact grid on the lit side was developed. The major advantages of the reverse cell over the conventional cell are as follows:

  • 1.

    (1) the reverse cell is suitable for the collection of long-wavelength light reflected on the back surface and at the same time of the short wavelengths owing to the opportunity of forming a shallow front surface p + layer without the risk of leakages from the contact metallization.

  • 2.

    (2) the series resistance of the back and front contacts can be greatly reduced.

In this work we carried out a process sequence for reverse cell production: up to now our best fill factor was 78% which is probably the highest value obtained using thick film technology.

In addition, using numerical modelling, we analysed the spectral responsivity, the short-circuit current and the dependence of the efficiency on the front surface field depth. The behaviour of the short-circuit current with increasing lifetime was also investigated.

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