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基于吸热管反射成像法测量抛物槽式太阳能聚光器的面形误差 被引量:10

Surface Error of Parabolic Trough Solar Concentrators Based on the Theoretical Overlay Photographic Method
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摘要 为提高抛物槽式太阳能聚光器的聚光效率,需要对聚光器的整体面形进行检测和调整。提出采用吸热管反射成像法检测槽式聚光器各子镜的安装位置及倾斜角度,进而获得聚光器的整体面形信息。通过测量相机与被测聚光器的相对位置,可计算吸热管在待检测子镜中的成像位置及形状,并推导了吸热管在聚光器中的理论成像位置计算公式。进行了吸热管反射成像法检测槽式聚光器面形的实验。通过调整聚光器子镜的安装位置和倾斜角度,使吸热管在子镜中的实际成像位置与理论位置重合,验证了检测方法的正确性和可行性。 To improve the concentrate efficiency of the parabolic trough concentrator, the measurement and adjustment of overall surface are needed. The theoretical overlay photographic method is used to measure the installation position and tilt angle of facet mirrors, and then the concentrator surface information is obtained. It can calculate the theoretical shape and position of the receiver in image by measuring the relative position of concentrator and cameras, while the theory position formula of receiver is deduced in concentrator. The experiment of the theoretical overlay photographic method measuring the concentrator surface is done. This method can match the actual position of receiver to theoretical position in image by adjusting installation position of facet mirrors, which verifies the feasibility and correctness of this method.
出处 《光学学报》 EI CAS CSCD 北大核心 2014年第4期105-110,共6页 Acta Optica Sinica
基金 国家973计划(2010CB227101) 国家863计划(2012AA050602) 国家自然基金(11174275)
关键词 光学器件 聚光效率 聚光器面形 吸热管反射成像法 抛物槽式聚光器 optical devices concentrate efficiency concentrator surface theoretical overlay photographic method parabolic trough concentrator
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参考文献13

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  • 2王军,张耀明,金保升,刘德有,安翠翠.太阳能热发电系列文章(15)——太阳能热发电中的聚光器[J].太阳能,2007(9):30-34. 被引量:8
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  • 7Zhao Yuning, Fay Patrick, Wibowo Andre, et al. Via-hole fabrication for III-V triple-junction solar cells[J]. Journal of Vacuum Science and Technology B, 2012, 30(6): 06F401.
  • 8Yong Sin Kim, Sung Mo Kang, Roland Winston. Tracking control of high-concentration photovoltaic systems for minimizing power losses[J]. Progress in Photovoltaics, 2014, 22(9): 1001-1009.
  • 9Yuan Hsiang Zou, Tian Shiang Yang. Optical performance analysis of a HCPV solar concentrator yielding highly uniform cell irradiance[J]. Solar Energy, 2014, 107(9): 1-11.
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