使用 Scaps 软件对 Perovskite 太阳能电池的无机电荷传输层进行理论研究

Aniefiok F. A., Dahiru M. S., Musa S. A.
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摘要

能源可以来自可再生和不可再生资源。太阳能是一种清洁的可再生能源,以光和热的形式从太阳中获取。尽管只有一小部分能到达地球。Perovskite 是一个统称,指的是与钙钛矿具有相同晶体结构的材料。本研究的目的是使用 SCAPS 1D 软件模拟研究透辉石太阳能电池的无机电荷载流子性能。目标是:分析工作温度变化对包晶石太阳能电池(PSCs)的影响;优化氧化钛(TiO2)电子传输层(ETL)的厚度;以及研究背面金属触点的功函数对 PSCs 性能的影响。我们进行了全面分析,以评估软件对电池性能的影响,重点关注厚度、温度和功函数等关键参数,从而优化器件效率。通过了解表面特性如何影响性能,这一探索为优化器件效率和稳定性提供了新的见解,使分析范围超出了温度和厚度等传统参数。研究结果表明,虽然温度波动与电流密度(Jsc)保持一致,填充因子(FF)也略有变化,但开路电压(Voc)在所有温度下都会持续下降。值得注意的是,在 303 K 时,效率保持相对稳定。此外,超过 0.20 μm 的最佳厚度会对包晶体太阳能电池的效率产生不利影响,而背面金属触点达到 5.0 eV 的最佳功函数则是实现性能最大化的关键。这些结果凸显了采用无机传输材料来应对包晶体太阳能电池固有的稳定性挑战的重要性,为在不影响器件性能的前提下采用具有成本效益的制造方法铺平了道路。建议对 Zn2O、NO、SnO2 等其他包晶太阳能电池的无机电荷载流子进行优化,以确定哪种载流子在制造过程中性能更好。
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Theoretical Study of Inorganic Charge Transport Layer of Perovskite Solar Cells Using Scaps Software
Energy can be from renewable and non-renewable sources. Solar energy is a clean renewable energy derived from the sun in the form of light and heat. Although, only a small fraction reaches the earth. Perovskite is a generic name referring to materials that exhibits the same crystal structure as calcium titanate. The aim of this research is to investigate the performance of inorganic charge carriers of perovskite solar cells using SCAPS 1D software for the simulation. The objectives are to:  analyze the effects of variation of operational temperature on Perovskite Solar Cells (PSCs), optimize the thickness of titanium oxide (TiO2) electron transport layer (ETL); and investigate the effect of work function of the back metallic contact on the performance of PSCs. A comprehensive analysis was conducted to evaluate the software's impact on cell performance focusing on key parameters such as thickness, temperature, and work function to optimize device efficiency. This exploration provides new insights into optimizing device efficiency and stability by understanding how surface characteristics affect performance which extends its analysis beyond traditional parameters like temperature and thickness. The findings reveal that while temperature fluctuations maintain consistency with current density (Jsc) and exhibit slight variations in fill factor (FF), there's a consistent decrease in open-circuit voltage (Voc) across all temperatures. Notably, at 303 K, the efficiency remains relatively stable. Moreover, exceeding the optimal thickness of 0.20 μm adversely affects perovskite solar cell efficiency, while achieving an optimal work function of 5.0 eV for the back metallic contact is critical for maximizing performance. These results underscore the significance of employing inorganic transport materials to address the stability challenges inherent in perovskite solar cells, paving the way for cost-effective fabrication methods without compromising device performance. It is recommended that optimization process be carried out for other inorganic charge carriers of the perovskite solar cells like Zn2O, NO, SnO2 and others to see which one has a better performance in the fabrication.
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