Improvement of the photovoltaic conversion efficiency using nanostructuring in intermediate-band photovoltaic solar cells

H. Mammar, A. Benmansour, M. Bouzaki
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引用次数: 1

Abstract

Nanostructuring is one of the most developed technologies that are able to improve considerably the photovoltaic conversion for low cost. This approach removes certain limitations of current technology; the photons that have low energy and do not participate in the photovoltaic conversion. Also, the photons that have a high energy that sell their excess energy in phonons' form. This work focuses on intermediate band solar cells introduced by material with a high-energy gap, an intermediate energy level, by quantum dots or quantum wells of some nanometers. This study attempts to show the great interest of this approach by calculating first, the efficiency limits of solar cell Shockley and interests in the intermediate-band photovoltaic solar cells approach by studying the parameters affecting their performances as well as the choice of materials and energy level of the nanostructure. All this, is achieved through the simulation software Matlab. The mathematical model developing stretches of photon emission by sun until the photovoltaic conversion in the semiconductor material.
利用纳米结构提高中波段光伏太阳能电池的光电转换效率
纳米结构技术是目前最发达的技术之一,它能够以较低的成本大大提高光伏转换的效率。这种方法消除了当前技术的某些限制;具有低能量且不参与光伏转换的光子。此外,具有高能量的光子以声子的形式出售其多余的能量。本研究的重点是利用具有高能间隙的材料、中间能级、量子点或某些纳米级的量子阱引入中间能带太阳能电池。本研究试图通过首先计算太阳能电池的Shockley效率极限,并通过研究影响其性能的参数以及纳米结构的材料和能级的选择,来展示该方法的巨大兴趣。这一切,都是通过仿真软件Matlab实现的。该数学模型发展了太阳对光子发射的延伸,直到半导体材料中的光伏转换。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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