可折叠/可卷曲高效太阳能电池组件的干外延提升、集成、互连和封装

J. Farah
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引用次数: 2

摘要

OptiCOMP网络公司正在开发一种制造轻薄、灵活、便携、高效的III-V型光伏模块的新方法,该模块可以折叠和卷起,用于空间和地面应用。多结倒置电池(IMM3J)和非倒置电池从Ge或GaAs生长晶片上剥离,转移到廉价的柔性聚酰亚胺永久载体衬底上。升空发生在几分之一秒内。OptiCOMP使用专有材料和粘合技术。不需要昂贵的离子注入或缓慢的化学蚀刻牺牲层。几个电池集成在一个共同的毛毯聚合物片,并通过焊接铜带相互连接。外延层的两侧可以从晶圆片的顶部接触。这消除了对铜包覆聚合物基板的需求,并减轻了重量。使用透明的喷涂聚酰亚胺层取代覆盖玻璃,将电池完全封装。选择毯子聚酰亚胺层的厚度和CTE来平衡结构的应力,使其在轨道上300°C的温度变化下保持平坦。整个太阳能电池结构厚度小于250 μm,比功率比达到340 W/kg。基础晶圆被重复使用以生长另一个外延层,并重复此循环。衬底材料的成本约占成品电池成本的40%。OptiCOMP的工艺将节省高达30%的电池成本,并将使地面应用成为可能。
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Dry-epitaxial lift-off, integration, interconnect and encapsulation of foldable/rollable high efficiency solar cell modules
OptiCOMP Networks is developing a new method for manufacturing thin, lightweight, flexible, portable high efficiency III-V PV modules that can be folded and rolled for space and terrestrial applications. Multi-junction inverted (IMM3J) and non-inverted cells are lifted off the Ge or GaAs growth wafer and transferred to inexpensive flexible polyimide permanent carrier substrate. The lift-off happens in fraction of a second. OptiCOMP uses proprietary materials and bonding techniques. No expensive ion implantation or slow chemical etching of a sacrificial layer is needed. Several cells are integrated on a common blanket polymeric sheet and interconnected by soldering copper ribbons. Both sides of the epi-layer can be contacted from the top side of the wafer. This eliminates the need for copper cladded polymeric substrates and reduces weight. The cells were fully encapsulated using transparent spray-on polyimide layer which replaces the cover glass. The thickness and CTE of the blanket polyimide layer were chosen to stress-balance the structure so that it remains flat in spite of 300°C temperature variations in orbit. The entire solar cell structure is less than 250 μm thick and achieves a specific power ratio of 340 W/kg. The base wafer is reused to grow another epi-layer and the cycle repeated. The cost of substrate materials is about 40% of the cost of the finished cell. OptiCOMP's process will result in savings in raw materials up to 30% of the cost of the cell and will enable terrestrial applications.
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