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上海大学 精密机械工程系 上海,200072
收稿日期:2008-10-14,
修回日期:2008-12-05,
网络出版日期:2009-07-25,
纸质出版日期:2009-07-25
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王志明, 龚振邦, 魏光谱, 刘李明. 用于太阳电池测试的太阳模拟技术[J]. 光学精密工程, 2009,17(7): 1542-1547
WANG Zhi-ming, GONG Zhen-bang, WEI Guang-pu, LIU Li-ming. Solar simulation technique for solar cell measurement[J]. Editorial Office of Optics and Precision Engineering, 2009,17(7): 1542-1547
为了提高太阳模拟器的性能
更准确地测试太阳电池的特性参数
对模拟器的光源辐照利用率、辐照均匀度、辐照度与辐照稳定性的控制进行了研究。选取同轴光学系统结构作为模拟器光学系统
通过改进光学系统的结构排布
增加光积分器等方法
改善光源辐照利用率与辐照均匀度;在分析现役模拟器控制线路的基础上
采用光反馈技术对控制线路进行重新设计
提升系统对辐照度与辐照稳定性的可控性。实验结果表明:新型的太阳模拟器能有效地控制辐照度与辐照稳定性
在直径250 mm范围内
标准光强为1000 W/m
2
的条件下
辐照均匀度为2.5%
辐照稳定性<1%
较大地改进了太阳模拟器的性能。
In order to improve the performance of a solar simulator to measure the characteristic parameters of solar cells more accurately
how to control the radiation parameters for the simulator lamp was studied
such as the radiation utility rate
radiation uniformity
radiation intension
radiation stability
and so on. A coaxial optical system was selected as the optical system of the solar simulator. Then
the utility rate the lamp radiation and radiation uniformity were improved by ameliorating the optical system structure layout and increasing an optical integrator. On the basis of analyzing the existing control circuit of the simulator
an optical feedback technology was adopted to redesign the control circuit and to improve the control ability on radiation intension and radiation stability. The experimental results indicate that the new solar simulator can effectively control radiation intension and stability. When the standard light intension is 1000 W/m
2
the radiation uniformity is 2.5% and the radiation stability is less than 1% in a diameter of 250 mm
which has greatly improved the performance of the solar simulator.
周春兰,王文静,李海玲,等. 用电参数表征硅太阳电池特性[J]. 光学 精密工程,2008,16(7):1163-1170. ZHOU CH H, WANG W J,LI H L, et al.. Characterization of crystalline silicon solar cells by electrical parameters[J]. Opt. Precision Eng.,2008,16(7): 1163-1170.(in Chinese)[2] BHUSHAN L, SOPORI,CRAIG. Design of a fiber optic based solar simulator[J].IEEE, 1991,CH2953-8/91/0000-0783:783-788.[3] STURCHECHER J J,LAARUE J C.The mini-flasher: a solar array test system[J].Solar Energy Materials and Solar Cells,1994,36:91-98.[4] 庞贺伟,黄本诚,臧友竹,等. KM6太阳模拟器设计概述[J]. 航天器环境工程,2006,23(3):125-133. PANG H W,HUANG B C,ZANG Y ZH,et al..Design of KM6 solar simulator[J].Spacecraft Environment Engineering,2006,23(3):125-133.(in Chinese)[5] 刘洪波. 太阳模拟技术[J]. 光学 精密工程,2001,9(2):177-181. LIU H B. Solar simulator technique [J]. Opt. Precision Eng.,2001,9(2):177-181.(in Chinese)[6] 仲跻功. 太阳模拟器光学系统的几个问题[J]. 太阳能学报,1983,4(3):187-193. ZHONG J G. The several question of the solar simulator optic system [J].Acta Energiae Solaris Sinica,1983,4(3):187-193.(in Chinese)[7] 陆汉明. 均匀照明系统的设计与应用[J]. 光学仪器,1991,12(4):32-38. LU H M.Design and application of uniformly illuminating system[J].Optic Instrument, 1991,12(4):32-38. (in Chinese)[8] 邱丽容.太阳电池测试系统[M]. 西安:西安交通大学出版社,1999. QIU L R. The Testing System of Solar Cell[M]. Xian:Xian Jiaotong University Press,1999.(in Chinese)[9] 蔡建文,李萍萍,徐传明,等. 太阳电池测试系统及其参数匹配优化研究[J]. 光学 精密工程, 1997,15(4):517-521. CAI J W, LI P P, XU CH M, et al.. Study on solar cell testing system and its parameter matching optimization[J]. Opt. Precision Eng., 1997,15(4):517-521.(in Chinese)
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