离子注入肖特基势垒太阳能电池

Y. Pai, H. Lin, M. Peckerar, R. Kocher
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引用次数: 1

摘要

肖特基势垒太阳能电池的有效高度可以通过植入与衬底电导率相反的杂质薄层(~ 100Å)来提高。植入的太阳能电池对界面氧化物、表面态密度和功函数的变化不敏感。由此制备的最大开路电压为0.52 V。该电池的短路电流为25毫安厘米-2(没有交叉金属化或增透涂层)。开路电压与金属-半导体界面附近植入物掺杂密度梯度的陡度有关。因此,注入优于扩散掺杂,因为它提供了最大陡度的掺杂密度梯度。分析表明,要达到最大开路电压,植入物的范围必须小于100Å,剂量必须大于1013cm-2。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ion-implanted Schottky barrier solar cell
The effective height of a Schottky barrier solar cell can be increased by implanting a thin layer (∼ 100Å) of impurity of opposite conductivity to that of the substrate. The implanted solar cell becomes insensitive to changes in interfacial oxide, surface state densities and work function. The maximum open circuit voltage thus fabricated was 0.52 V. The short circuit current for this cell was 25 mA cm-2(without interdigitated metallization or antireflection coating). Open circuit voltage is related to the steepness of the implant doping density gradient near the metal-semiconductor interface. Thus, implantation is superior to diffusion doping in that it provides the doping density gradient of maximum steepness. Analysis shows that the range of the implant must be less than 100Å and the dosage greater than 1013cm-2to achieve maximum open circuit voltage.
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