空间太阳能卫星系统高效多结太阳能电池光伏技术的性能表征

Golap Kanti Dey, K. Ahmmed
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引用次数: 0

摘要

在我们的研究工作中,对不同一代太阳能电池的电特性进行了研究,第一代:单晶硅和多晶硅,第二代:薄膜太阳能电池,第三代:全光谱利用和不同太阳能电池的比较效率研究。此外,我们研究的主要部分是多结太阳能电池(MJSC),用于空间太阳能卫星(SSPS)系统,由III-V半导体材料制成,与其他现有的光伏技术相比,效率更高。这里我们已经展示了MJSC由3层具有不同带隙的材料组成。上层的带隙最大,下层的带隙最小。这种模式允许能量较低的光子通过上层并被下层吸收,从而提高了整体效率。一个重要的估计是,每层产生的光电流必须是相同的,因为层是串联的。此外,为了最有效地吸收入射辐射的光谱,每层的带隙应该相差大约相等的能量。由于成本高,多结太阳能电池通常用于SSPS系统,用于从空间到地面接收站的微波功率光束,以及作为大量阳光反射到电池上的集热器电池。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Performance characterization of photovoltaic technology with highly efficient Multi-Junction Solar Cells for Space Solar Power Satellite system
In our research work electrical characterization with different generation of solar cells depending upon the emergence as- First Generation: Mono and Poly-crystalline Silicon, Second Generation: Thin-film Solar Cell, Third Generation: Full Spectrum Utilization with comparative efficiency study of different solar cells is investigated. Besides, major part of our research is Multi-Junction Solar Cells (MJSC), for Space Solar Power Satellite (SSPS) system, created from III-V semiconductor materials, exhibit high efficiencies comparing to other existing photovoltaic technology. Here we have shown MJSC's are composed of 3 layers of material that have different bandgaps. The upper layer has the largest bandgap while the lower layer has the smallest bandgap. This model allows less energetic photons to pass through the upper layers and be absorbed by the lower layer, which increases the overall efficiency. One significant estimation is that generated photocurrent in each layer must be the same since the layers are in series. Besides, for most effective absorption from the spectrum of incident radiation, the bandgaps of each layer should differ by approximately equal energies. Due to the high cost, multi-junction solar cells are usually used in the SSPS system, in Microwave Power Beaming from space to ground based receiving station and as collector cells where a large amount of sunlight is reflected onto the cell.
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