量子点中间带太阳能电池

A. Martí, L. Cuadra, A. Luque
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引用次数: 147

摘要

本文讨论了利用量子点技术制造中间波段太阳能电池(IBSC)的可能性,这种电池在聚光下的效率有可能达到63.2%。点的零维性质避免了带之间的电子热化,增强了带之间辐射重组的可能性,并使三个准费米能级的存在成为可能,这是IBSC理论的一些支点。从这个意义上说,InGaAs/AlGaAs系统可以用于IBSC电池的最佳带隙(0.71和1.24 eV)。点的半径约为40 /spl Aring/,间距在100 /spl Aring/范围内,并以三维阵列的形式分布。Stranski和Krastanow方法被提出作为实现这一目标的技术。讨论了n掺杂的可能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Quantum dot intermediate band solar cell
This paper discusses the possibility of manufacturing the intermediate band solar cell (IBSC), a cell with the potential of achieving 63.2% of efficiency under concentrated sunlight, using quantum dot technology. The 0-dimensionality nature of the dots avoids electron thermalisation between bands enhancing the possibilities for radiative recombination between bands and making possible the existence of three quasi-fermi levels, some of the pivots the theory of the IBSC is sustained on. In this sense, it is suggested that an InGaAs/AlGaAs system could be used for band engineering the optimum bandgaps of the IBSC cell (0.71 and 1.24 eV). Dots should be about 40 /spl Aring/ of radius, spaced in the range of 100 /spl Aring/ and distributed in a three dimensional array. The Stranski and Krastanow method is proposed as a technology for achieving this goal. The possibility of n-doping the dots is also discussed.
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