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三结太阳电池栅线对激光辐照中的传热影响研究 被引量:1

Heat transfer influence on grid lines of triple-junction solar cell irradiated by laser
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摘要 为了研究三结太阳电池表面的栅线在1 070 nm连续激光辐照过程中的传热影响机制,文中通过激光辐照过程中三结太阳电池实时的电致发光现象分析三结太阳电池的损伤情况,并建立三维锗基太阳电池模型,借助有限元分析软件COMSOL对连续激光辐照锗基太阳电池的温度分布进行仿真。结果表明:在连续激光功率密度为72.5 W/cm2、辐照时间为41 s时,三结太阳电池的顶电池出现轻微损伤,损伤区域首先沿着栅线分布。在锗基太阳电池的仿真模型中,电池的温度升高至1 318 K,栅线引起了三结太阳电池热量传递方向的各项异性,沿着栅线具有更高的热传导速率。仿真结果能够对实验现象给予合理的解释。 Effects of heat transfer on grid lines of triple-junction solar cell irradiated by1070nm CW laser were studied through the damage on triple-junction solar cell irradiated by laser with electroluminescence test.Three-dimensional model based on germanium solar cell was constructed with finite element analysis software COMSOL to simulate temperature distribution on triple-junction solar cell irradiated by CW laser.The results indicate that the top-cell of triple-junction solar cell is slightly damaged at the laser power density72.5W/cm^2and continuous irradiation time41s and the damaged region is firstly distributed along the grid line.The temperature of germanium solar cell in the simulation model has increased to1318K and the grid lines which has high heat conduction rate result in the anisotropic heat transfer direction.The experimental results are well explained by the simulation model.
作者 周广龙 徐建明 陆健 李广济 张宏超 Zhou Guanglong;Xu Jianming;Lu Jian;Li Guangji;Zhang Hongchao(College of Science,Nanjing University of Science and Technology,Nanjing 210094,China;Shanghai Institute of Space Power-Sources,Shanghai 200245,China)
出处 《红外与激光工程》 EI CSCD 北大核心 2018年第12期261-265,共5页 Infrared and Laser Engineering
基金 上海航天科技创新基金(SAST20161113)
关键词 连续激光 三结太阳电池 栅线 热效应 CW laser triple-junction solar cell grid lines heat effect
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