5x5 cm2自跟踪太阳能聚光器的演示

V. Zagolla, E. Tremblay, C. Moser
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引用次数: 1

摘要

太阳能聚光是利用光学技术,以尽量减少所需的昂贵的光伏电池材料。对于浓度因子高于约4,跟踪太阳的位置是必要的,以保持焦点光斑在太阳能电池。基于最近使用波导板来集中太阳光的发展,我们提出并演示了一种光响应、自跟踪的太阳能集中器。使用相变材料作用于焦点点,可以保持波导的有效耦合,角范围为+/- 20度。该系统利用太阳光谱中未使用的红外部分作为相变执行器的能量,实现了相变执行器的高接收角。与光谱匹配的定制硅太阳能电池连接在波导板上,其中光被耦合,太阳光谱的可见部分可以有效地转换为电能。在我们之前的工作中展示了一个概念验证的单透镜装置。这里我们将原理扩展到一个3x3透镜阵列演示装置。目前的演示装置具有+/- 16度的接收角和高达20倍的有效浓度因子。
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Demonstration of a 5x5 cm2 self-tracking solar concentrator
Solar concentration is using optics in order to minimize the amount of expensive photovoltaic cell material needed. For concentration factors higher than approximately 4, tracking the sun’s position is needed to keep the focal spot on the solar cell. Based on recent developments using a waveguide slab to concentrate sunlight we propose and demonstrate a light responsive, self-tracking solar concentrator. Using a phase change material acting at the focal spot, it is possible to maintain efficient coupling into the waveguide, up to an angular range of +/- 20 degrees. The system uses the unused infrared part of the solar spectrum as energy for the phase change actuator to achieve its high acceptance angle. With a spectrally matched custom silicon solar cell attached to the waveguide slab, in which light is coupled, the visible part of the solar spectrum can be efficiently converted to electricity. A proof-of-concept single lens device was demonstrated in our previous work. Here we extend the principle to a 3x3 lens array demonstration device. The current demonstration device features an acceptance angle of +/- 16 degrees and an effective concentration factor of up to 20x.
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