用于余热收集的InGaAsSb热光伏电池的优化

Rafiqi Rosli, H. J. Lee, M. Z. Jamaludin, M. Gamel, P. Ker
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摘要

随着能源需求的不断增长,为实现世界可持续发展目标而进行的技术探索和发明尤其令人感兴趣。然而,传统化石燃料发电厂整体能量转换效率低的局限性还有待解决。热光伏(TPV)系统在当今备受关注,因为它促进了可再生能源的使用并提高了工厂的能源效率。较窄的带隙材料如InGaAsSb TPV电池已被报道在废热应用中取得了很好的性能。然而,InGaAsSb TPV电池的性能还有待优化。因此,本研究旨在利用Silvaco软件对0.496 eV InGaAsSb进行优化,使其在10002000 K黑体温度下获得更好的电池效率,符合集热应用。在1223 K黑体温度下,InGaAsSb可以以10.82%的效率发电$\左({{P_{out}} = 0.286{\text{W/c}}{{\ maththrm {m}}^2}} \右)$。通过优化掺杂水平和发射极厚度,最大输出功率分别为0.31和0.33 W/cm2。因此,本研究将有助于废热回收系统窄带隙TPV装置的开发。
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Optimization of InGaAsSb Thermophotovoltaic Cell for Waste Heat Harvesting Application
Alongside the growing energy demand, the exploration and invention in technology to achieve world sustainability goal is of particular interest. However, the limitation of low overall energy conversion efficiency in conventional fossil-fuel-fired power plants is yet to be resolved. Thermophotovoltaic (TPV) system is of great interest today, as it promotes the usage of renewable energy and improves the energy efficiency in a plant. Narrower bandgap materials such as InGaAsSb TPV cell has been reported to achieve a promising performance for waste-heat application. However, the performance of InGaAsSb TPV cell is yet to be optimized. Hence, this research aims to optimize 0.496 eV InGaAsSb to achieve better cell efficiency using Silvaco software under 10002000 K blackbody temperature, which complies with the heat harvesting application. At 1223 K blackbody temperature InGaAsSb can potentially generate electricity with 10.82% efficiency $\left({{P_{out}} = 0.286{\text{W/c}}{{\mathrm{m}}^2}} \right)$. By optimizing the doping level and emitter thickness, it is capable to produce a maximum output power of 0.31 and 0.33 W/cm2, respectively. Thus, this study shall contribute to the development of narrow bandgap TPV device for waste heat recovery system.
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