研发中线生产多晶硅太阳能电池,最高效率超过19%

P. Engelhart, G. Zimmermann, C. Klenke, J. Wendt, T. Kaden, M. Junghanel, K. Suva, B. Barkenfelt, K. Petter, S. Hermann, S. Schmidt, D. Rychtarik, M. Fischer, J. Muller, P. Wawer
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引用次数: 8

摘要

在本文中,我们报告了我们在Q-Cells的Reiner-Lemoine研究中心中试生产多晶p型硅电池的最新结果。电池是双面接触的,具有低掺杂的发射极,细线印刷的Ag网格结合电镀作为前部金属化,以及具有局部接触的介电钝化后部。使用基于西门子的材料和升级的冶金级(100% UMG)原料,我们实现了稳定的电池效率中位数,远高于18%,包括整个砖分布。采用标准的等纹理前端和单一防反射涂层,最高效率超过19%(总面积)。在这项工作中,我们展示了与前金属化过程相对应的最新电池优化进展。此外,我们报告了一个独立证实的电池效率为19.5%的大面积多晶硅太阳能电池(243 cm2)。这种效率是通过实现下一代工艺步骤实现的。据我们所知,这一结果代表了迄今为止在多晶硅材料上实现的最高能量转换效率。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
R&D pilot-line production of multi-crystalline Si solar cells with top efficiencies exceeding 19%
In this paper we report on latest results from our pilot production of multi-crystalline (mc) p-type Si cells in the Reiner-Lemoine Research Center at Q-Cells. The cells are double-side contacted and feature a lowly doped emitter, a fineline-printed Ag grid in combination with plating as front metallization and a dielectric passivated rear with local contacts. Using material based on Siemens and upgraded metallurgical grade (100% UMG) feedstock, we achieve stable median cell efficiencies of well above 18 % including the whole brick distribution. Top efficiencies exceeding 19 % (total area) are reached with a standard isotextured front and single anti-reflexion coating. In this work, we show the latest cell optimization progress corresponding to the front metallization process. Furthermore, we report on an independently confirmed cell efficiency of 19.5 % on a large-area multi-crystalline Si solar cell (243 cm2). This efficiency was achieved by implementing next generation process steps. To our knowledge, this result represents the highest energy conversion efficiencies on multi-crystalline Si material achieved so far.
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