Multiple quantum well top cells for multijunction concentrator solar cells

Kan‐Hua Lee, K. Barnham, B. Browne, J. P. Connolly, Jessica G. J. Adams, R. Airey, N. Ekins‐Daukes, M. Fuhrer, Victoria Rees, M. Lumb, A. Dobbin, M. Mazzer, J. Roberts, T. Tibbits
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引用次数: 4

Abstract

High efficiency quantum well GaAs solar cells have been successfully applied in commercial multijunction concentrator cells to increase the absorption in the infrared and provide variability of the absorption edge to optimise energy harvesting. Multiple quantum well (MQW) top cells can further improve the performance of multijunction solar cells since the absorption edge of top and middle subcells can be tuned with the MQWs to maximize the efficiency. Also, our simulations show that photon coupling resulting from the radiative dominance of the MQW top cell can make the multijunction cell less sensitive to variations in the incoming spectrum, thus further improving energy harvesting. New results on the characterisation of a novel MQW top cell will be presented along with electro- and photo-luminescence studies relevant to the photonic coupling.
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多结聚光太阳能电池的多量子阱顶电池
高效量子阱GaAs太阳能电池已成功应用于商用多结聚光电池,以增加红外吸收,并提供吸收边缘的可变性,以优化能量收集。多量子阱(MQW)顶电池可以进一步提高多结太阳能电池的性能,因为顶部和中间亚电池的吸收边缘可以通过MQW进行调节,从而最大化效率。此外,我们的模拟表明,由MQW顶部电池的辐射优势引起的光子耦合可以使多结电池对入射光谱的变化不那么敏感,从而进一步提高能量收集。将介绍一种新型MQW顶电池的新特性,以及与光子耦合相关的电和光发光研究。
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