Space Optical Remote Sensor of the CAE Thermal Control index Calculation Method

被引:2
|
作者
Li, Lifu [1 ]
机构
[1] Changchun Inst Opt Fine Mech & Phys, Changchun 130033, Peoples R China
来源
关键词
Space optical remote sensor; CAE; thermo-elastic analysis; thermal optical analysis;
D O I
10.4028/www.scientific.net/AMR.308-310.2328
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
The thermal control indicators CAE methods of Space optical remote sensor are analyzed in the presented work. We sat up a thermal optical analysis model for space optical remote sensor. By assuming fully covered by in-orbit temperature load, and using the finite element method for thermal deformation analysis, we obtained the optical remote sensor surface deformation and displacement under various thermal loading. Using ZERNIKE polynomial, wave was fitted to obtain ZERNIKE polynomial coefficients which were incorporated into the optical system design. Using CODE V optical calculation software, heat-ray machines under elastic deformation of the system point spread function, transfer function (MTF), wave front differential (WFE) etc. were calculated. Image quality changes of remote sensors are discussed in variety assumed cases such as temperature loads of quality change. By repeated iteration, critical value of temperature fields meeting the design requirements are obtained for the optical system. Optical indicators were converged to the temperature field indicator, then reasonable indicators of thermal control for remote sensors were obtained. For the thermal control design, this method provided a reliable basis for design.
引用
收藏
页码:2328 / 2333
页数:6
相关论文
共 50 条
  • [1] Precise Thermal Control of CCD Assembly of Space Optical Remote Sensor
    Yang Wengang
    Li Yifan
    He Tianbing
    Bai Zhe
    Zhang Xianghui
    Wang Yinghao
    Yu Lei
    Fu Weichun
    Li Yingcai
    [J]. SEVENTH INTERNATIONAL SYMPOSIUM ON PRECISION ENGINEERING MEASUREMENTS AND INSTRUMENTATION, 2011, 8321
  • [2] The focal length control method for optical remote sensor
    Zhang Chao
    Zhao Xiting
    Jiao Wenchun
    Wei Xuemin
    [J]. AOPC 2015: OPTICAL TEST, MEASUREMENT, AND EQUIPMENT, 2015, 9677
  • [3] Optimization method of the thermal control index of space remote sensors based on force-thermal coupling algorithm
    Zhang, Liu
    Zheng, Xiaoyi
    Lv, Xueying
    Zhang, Fan
    [J]. APPLIED THERMAL ENGINEERING, 2022, 216
  • [4] Optimization method of the thermal control index of space remote sensors based on force-thermal coupling algorithm
    Zhang, Liu
    Zheng, Xiaoyi
    Lv, Xueying
    Zhang, Fan
    [J]. Applied Thermal Engineering, 2022, 216
  • [5] Design of asymmetric space optical remote sensor active thermal control system by multi-objective optimization
    Zhang Fan
    Li Jing-lin
    Sun Bin
    Zhang Jun
    Wang Shu-xin
    [J]. CHINESE OPTICS, 2016, 9 (04): : 463 - 471
  • [6] A thermo-optical analysis method for a space optical remote sensor optostructural system
    Ding, YW
    You, Z
    Lu, E
    Cheng, HB
    [J]. OPTICAL ENGINEERING, 2004, 43 (11) : 2730 - 2735
  • [7] Modularization design of vacuum thermal test frock for space optical remote sensor
    Zhou, Zexin
    Sun, Zhiqiang
    Xu, Bing
    Hong, Yang
    [J]. Beijing Hangkong Hangtian Daxue Xuebao/Journal of Beijing University of Aeronautics and Astronautics, 2019, 45 (08): : 1544 - 1551
  • [8] Thermal characterization of a new differential thermal expansion heat switch for space optical remote sensor
    Guo, Liang
    Zhang, Xusheng
    Huang, Yong
    Hu, Richa
    Liu, Chunlong
    [J]. APPLIED THERMAL ENGINEERING, 2017, 113 : 1242 - 1249
  • [9] Optimal design of thermal control system for space optical remote sensor based on NSGA-II and opto-mechanical-thermal integration analysis
    Yuan, Zhipeng
    Chen, Liheng
    Han, Hasiaoqier
    Ren, Limin
    Liu, Shuai
    Wang, Renxin
    [J]. CASE STUDIES IN THERMAL ENGINEERING, 2023, 43
  • [10] Thermal control design and experimental verification of light off-axis space optical remote sensor in the sun-synchronous orbit
    Guan, Fengwei
    Zhang, Feng
    Cao, Nailiang
    Liu, Qiang
    Liu, Ju
    Yu, Shanmeng
    Guan, Hongyu
    [J]. INTERNATIONAL JOURNAL OF HEAT AND TECHNOLOGY, 2018, 36 (01) : 125 - 132