聚光空间太阳能电站光电系统热管理策略

Guanheng Fan, Baoyan Duan, Yiqun Zhang, Xianli Li
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引用次数: 1

摘要

聚光空间太阳能电站(SSPS)的光伏系统将存在严重的热问题,这将降低光伏系统的转换效率和整个系统的整体能量传输。本文针对球形膜集能阵列(SSPS-OMEGA)SSPS光电系统中的热问题,提出了一种基于光伏电池光电特性和泵驱动流体流动回路的全光谱选择性光子薄膜的热管理策略,并将被动冷却和主动冷却相结合。仿真结果表明,全光谱选择性薄膜可以显著降低紫外带隙和子带隙中的寄生热源,分别从205到72.8W/m2和从46到4.5W/m2。同时,它可以有效地将发射率从0.84提高到0.938。另一方面,为SSPS-OMEGA项目的地面演示验证系统设计了泵驱动的流体流动回路,并将光伏电池阵列的温度控制在50℃以下。最后,通过简单的实验研究,验证了光电系统中泵驱动流体流动回路的热控制性能。
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Thermal Management Strategy of Photoelectric System of Sunlight Concentrating Space Solar Power Station

There will be serious thermal problems in the photovoltaic system of sunlight-concentrating space solar power station (SSPS), which will reduce the conversion efficiency of the photovoltaic system and overall energy transmission of the whole system. In this paper, based on the thermal problems in the optoelectronic system of SSPS via Orb-shape Membrane Energy Gathering Array (SSPS-OMEGA), a thermal management strategy of full-spectrum selective photonic thin-film based on the photoelectric characteristics of photovoltaic cells and pump-driven fluid flow loop is proposed with combination of passive and active cooling methods. Simulation results indicate that the full-spectrum selective thin film can significantly reduce the parasitic heat source in ultraviolet band and sub-band gap, from 205 to 72.8 W/m2 and from 46 to 4.5 W/m2, respectively. Meanwhile, it can effectively increase the emissivity from 0.84 to 0.938. On the other hand, the pump-driven fluid flow loop is designed and the temperature of the PV cell array is well controlled below 50 ℃ for ground-based demonstration validation system of the SSPS-OMEGA project. Finally, a simple experiment investigation is carried out demonstrate the thermal control performance of pump-driven fluid flow loop for photoelectric system.

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