太阳能电池用多孔硅的原子力显微镜表征

I. Šimkienė, V. Snitka, K. Naudzius, V. Pačebutas, M. Rackaitis
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引用次数: 0

摘要

测试了阳极蚀刻大孔和纳米孔硅层(PS)的表面粗糙度与制备方法的关系。通过电化学刻蚀n型硅片得到多孔硅层,然后进行高掺杂。利用硼在自旋玻璃的PS中扩散制备了深层P+层。利用原子力显微镜对制备的太阳能电池PS表面结构进行了表征。以纳米多孔聚苯乙烯为增透涂层的聚苯乙烯体系呈现出由规则的正方形和多面体组成的均匀宏观阵列,具有不同尺寸的纹理化太阳能电池,平均高度为1.43微米,计算粗糙度参数为Rz - 2.37微米。对于相同的大孔硅样品,没有额外的纳米孔硅层,计算得到的Rz为4.84微米。这可以用大孔硅表面的电抛光来解释。所得结果证实了原子力显微镜可以精确测量被纳米多孔硅层覆盖的大孔硅的形状。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Characterization of porous silicon for solar cell application by atomic force microscopy
The anodically etched macroporous and nanoporous silicon layers (PS) were tested in order to determine their surface roughness dependence eon fabrication method. Porous silicon layers were obtained by electrochemical etching of n-type wafers, and then highly doped. Deep P+ layers were prepared by boron diffusion into the PS from spin-on glass glasses. The structure of PS surface of solar cells obtained was examined by atomic force microscopy. The system of PS coated with nanoporous PS as a antireflection coating exhibited a uniform macroarray of regular square and faceted large features of various sizes as a texturisated solar cell with average 1.43 micrometers high and computed roughness parameter Rz - 2.37 micrometers . For the same macroporous silicon sample without additional nanoporous silicon layer computed Rz was 4.84 micrometers . This could be explained by electropolishing of macroporous silicon surface. The obtained results confirm that AFM can be employed for the accurate measurement of the shape of macroporous silicon covered by the nanoporous silicon layer.
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