光吸收光谱带隙分析的自动算法

Marcus Schwarting , Sebastian Siol , Kevin Talley , Andriy Zakutayev , Caleb Phillips
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引用次数: 14

摘要

随着高通量组合实验方法变得越来越普遍,技术挑战正在从生产材料转向处理越来越大的数据集。确定半导体材料适用于各种应用的最重要指标之一是带隙。本文讨论了根据光学吸收光谱确定带隙的自动算法。将这些算法应用于34313个光学吸收光谱的数据库,并将选定的结果与来自16个材料集的已发表的理论和实验带隙数据进行比较。最佳算法以0.37的精度确定带隙 直接和0.93的eV 对于>;20000个光谱。
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Automated algorithms for band gap analysis from optical absorption spectra

As high-throughput combinatorial experimental methods become more common, the technical challenge is shifting from producing materials to dealing with increasingly large datasets. One of the most important metrics to determine suitability of semiconductor materials for various applications is the band gap. This paper discusses automated algorithms for determining band gaps from optical absorption spectra. The algorithms are applied to a database of 34,313 optical absorption spectra, and selected results are compared to published theoretical and experimental band gap data from 16 materials sets. The best algorithm determines the band gaps with an accuracy of 0.37 eV for direct- and 0.93 eV for indirect band gaps for >20,000 spectra.

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