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ZnSnS3: Structure Prediction, Ferroelectricity, and Solar Cell Applications

机译:ZNSNS3:结构预测,铁电和太阳能电池应用

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摘要

The rapid growth of the solar energy industry is driving a strong demand for high performance, efficient photoelectric materials. In particular, ferroelectrics composed of earth-abundant elements may be useful in solar cell applications due to their large internal polarization. Unfortunately, wide band gaps prevent many such materials from absorbing light in the visible to mid-infrared range. Here, we address the band gap issue by investigating the effects of substituting sulfur for oxygen in the perovskite structure ZnSnO3. Using evolutionary methods, we identify the stable and metastable structures of ZnSnS3 and compare them to those previously characterized for ZnSnO3. Our results suggest that the most stable structure of ZnSnS3 is the monoclinic structure, followed by the metastable ilmenite and lithium niobate structures. The latter structure is highly polarized, possessing a significantly reduced band gap of 1.28 eV. These desirable characteristics make it a prime candidate for solar cell applications.
机译:太阳能产业的快速增长是对高性能,高效光电材料的强烈需求。特别地,由于其大的内部极化,由土坯元素组成的铁电器可用于太阳能电池应用。遗憾的是,宽带间隙可防止许多这样的材料吸收中红外范围的可见光。在这里,我们通过研究含硫在钙钛矿结构ZnSNO3中氧气氧化氧的影响来解决频带缺口问题。使用进化方法,我们确定ZnSNS3的稳定和稳定性结构,并将它们与先前为ZnSNO3为特征的结构进行比较。我们的研究结果表明,ZnSNS3最稳定的结构是单斜晶体结构,其次是亚钼酸盐和铌酸锂结构。后一种结构具有高度极化,具有1.28eV的显着降低的带隙。这些理想的特性使其成为太阳能电池应用的主要候选者。

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