Multijunction solar arrays for space and terrestrial applications

V. M. Andreev
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Abstract

Photovoltaic conversion of the solar energy is the most prospective direction of the renewable power engineering. Solar arrays ensure power supply of spacecrafts and are gaining increasingly more application on the Earth. In the majority of developed countries, laws on state support of the green power engineering assisted in a substantial increase of power of the solar photovoltaic systems have been adopted. The main barrier to increasing the terrestrial solar photovoltaics development rates is a relatively high cost of the solar electric power. The ways for reducing the cost are the rise of the efficiency of power systems and the reduction of the material consumption for arrays based on multijunction solar cells. Results of multijunction solar cells and modules developments for space and terrestrial solar arrays are discussed in the article. In the last years, a significant experience on creation of multijunction solar cells was accumulated. Cascade solar cells and solar photovoltaic installations on their base with sunlight concentrators have been developed. At present, the terrestrial cascade solar cell efficiency exceeds 45%, which is substantially higher than that in conventional Si and thin-film solar arrays. The cascade solar cell efficiency increase has been achieved at the expense of splitting the sunlight spectrum into several intervals by the solar cell semiconductor structure fulfilling more effective photon energy conversion of each of these intervals in a definite parts of this structure. It is shown that multijunction solar cells provide the highest efficiency and they are the basic components of space arrays. Multijunction solar cells provide the highest conversion efficiency of concentrated sunlight as well. It opens prospects for decreasing the solar cell area and cost proportionally to the sunlight concentration. Developed concentrated photovoltaic installations are promising for wide applications in the high scale terrestrial solar photovoltaic energetics.
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用于空间和地面应用的多结太阳能阵列
太阳能的光伏转换是可再生能源工程最具发展前景的方向。太阳能电池阵列确保了航天器的电力供应,并在地球上获得了越来越多的应用。在大多数发达国家,已经通过了关于国家支持绿色电力工程的法律,以帮助大幅增加太阳能光伏系统的功率。提高地面太阳能光伏发展率的主要障碍是太阳能发电成本相对较高。降低成本的方法是提高电力系统的效率和减少基于多结太阳能电池的阵列的材料消耗。本文讨论了用于太空和地面太阳能电池阵列的多结太阳能电池和模块的开发结果。在过去的几年里,在制造多结太阳能电池方面积累了丰富的经验。已经开发了级联太阳能电池和在其底座上安装有阳光集中器的太阳能光伏装置。目前,地面级联太阳能电池的效率超过45%,大大高于传统的硅和薄膜太阳能阵列。通过太阳能电池半导体结构在该结构的特定部分中实现这些间隔中的每一个的更有效的光子能量转换,级联太阳能电池效率的提高是以将太阳光谱分成若干间隔为代价实现的。研究表明,多结太阳能电池具有最高的效率,是空间阵列的基本组成部分。多结太阳能电池也提供了最高的集中阳光转换效率。它为减少太阳能电池面积和成本与阳光浓度成比例开辟了前景。开发的集中光伏装置在大规模地面太阳能光伏能量学中有着广泛的应用前景。
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