首页> 外文期刊>Journal of Physics, D. Applied Physics: A Europhysics Journal >Wave-optical studies of light trapping in submicrometre-textured ultra-thin crystalline silicon solar cells
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Wave-optical studies of light trapping in submicrometre-textured ultra-thin crystalline silicon solar cells

机译:亚微米结构超薄晶体硅太阳能电池中光陷阱的波光学研究

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摘要

Wave optics calculations are performed to determine the energy conversion efficiency of pyramidal textured thin c-Si solar cells. For an optimized 20 μm thick c-Si device backed by a silver mirror an efficiency of 21.3% is obtained. An alternative approach to back reflection, submicrometre phase-shifted pyramid texturization on the back surface instead of the lossy metal mirror is demonstrated to yield a higher efficiency of 21.5%. More significantly the phase-shifted texturization approach permits light to enter the solar cell from both the front and back surfaces. For 10 νm and 5 νm thicknesses, efficiencies of 20.4% and 19.0% are obtained, respectively. Thus, the architecture is amenable to fabrication of high-efficiency ultra-thin bifacial solar cells.
机译:进行波光学计算以确定金字塔形纹理薄c-Si太阳能电池的能量转换效率。对于由银镜支持的优化的20μm厚c-Si器件,效率为21.3%。一种替代的背面反射方法,即在背面代替有损金属镜的亚微米相移金字塔纹理化被证明可产生21.5%的更高效率。更重要的是,相移纹理化方法允许光从正面和背面都进入太阳能电池。对于10νm和5νm的厚度,分别获得20.4%和19.0%的效率。因此,该架构适合于制造高效超薄双面太阳能电池。

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