分子束外延生长的GaSb热光伏电池发射极厚度优化

S. Abdallah, D. Herrera, B. Conlon, N. Rahimi, L. Lester
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引用次数: 3

摘要

采用分子束外延(MBE)技术制备了GaSb热光伏(TPV)器件。为了使TPV电池的短路电流密度最大化,研究了不同的发射极厚度。为此,对制造的TPV器件的发射极进行了增量湿蚀刻和表征,以找到最佳厚度值。为了预测不同设计的器件性能,同时最大化光电流产生并增强发射极片电阻,使用Crosslight APSYS®平台在全光谱范围内进行了模拟。对TPV器件进行了电学和光学表征。这些实验数据表明,蚀刻发射极对测量的短路电流密度(Jsc)的影响最小,而模拟结果表明,最佳的短路电流密度为200 nm。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Emitter thickness optimization for GaSb thermophotovoltaic cells grown by molecular beam epitaxy
GaSb thermophotovoltaic (TPV) devices were fabricated using a Molecular Beam Epitaxy (MBE) technique. Different emitter thicknesses (de) were studied to maximize the TPV cell’s short circuit current density. In this regard, the fabricated TPV device’s emitter was incrementally wet-etched and characterized to find the optimal thickness value. Simulations were performed using the Crosslight APSYS® platform over the full-spectrum range in order to predict device performance for different designs, while maximizing the photocurrent generation and enhancing the emitter sheet resistance. TPV devices were characterized electrically and optically. These experimental data showed that the etched emitter has minimal impact on the measured short circuit current density (Jsc) while simulated results demonstrated an optimal de of 200 nm.
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