太阳辐射的在轨监测和定标

杨东军; 方 伟; 邱 红; 齐 瑾

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太阳辐射的在轨监测和定标

论文 | 更新时间：2020-08-12

- 太阳辐射的在轨监测和定标
- On-orbit Data Calibration of FY-3A Solar Irradiance Monitor
- 发光学报 2010年31卷第5期页码：676-681
- 作者机构：
  
  1. 中国科学院长春光学精密机械与物理研究所,吉林长春,130033
  2. 中国科学院研究生院北京,100039
  3. 中国气象局国家卫星气象中心, 北京 100081
- 作者简介：
- 基金信息：
  
  国家自然科学基金(61077080)();吉林省青年科研基金(20090117)资助项目()
- DOI：
  中图分类号： P182.2
- 纸质出版日期：2010-9-21，
  
  网络出版日期：2010-9-21，
  
  收稿日期：2010-5-5，
  
  修回日期：2010-8-24，
扫描看全文
杨东军, 方伟, 邱红, 齐瑾. 太阳辐射的在轨监测和定标[J]. 发光学报, 2010,31(5): 676-681

YANG Dong-jun, FANG Wei, QIU Hong, QI Jin. On-orbit Data Calibration of FY-3A Solar Irradiance Monitor[J]. 发光学报, 2010,31(5): 676-681
杨东军, 方伟, 邱红, 齐瑾. 太阳辐射的在轨监测和定标[J]. 发光学报, 2010,31(5): 676-681 DOI：

YANG Dong-jun, FANG Wei, QIU Hong, QI Jin. On-orbit Data Calibration of FY-3A Solar Irradiance Monitor[J]. 发光学报, 2010,31(5): 676-681 DOI：

摘要

采用宽视场设计

逐轨扫描太阳式测量方式的FY-3A太阳辐射监测仪

结合在轨一年半的太阳辐照度观测数据和地面实验与理论分析

研究了影响定标精度的因素

给出了修正方程和曲线

并通过与世界辐射基准(WRR)的地面外场定标实验

得到了FY-3A上的三台绝对辐射计的比例系数

=1.0083

=1.0066

和

=1.0065

。日地距离的理论分析和实际太阳辐照度测量曲线均证明:地球近日点太阳辐照度值最大

远日点太阳辐照度值最小

且在3.34%范围内随日期变化。利用天文公式

结合遥感源包中的准确测量时间

给出了日、地修正系数。另外

分析了冷空间背景辐射对定标精度的影响

给出了冷空间辐射值的计算公式

并结合宽视场设计和扫描式测量的特点

重点分析了采光结束时刻和刚捕获太阳光时刻入射角的差异给辐照度测量带来的影响

通过几何关系给出了入射角修正系数方程及修正曲线。最后

综合各定标修正系数

给出了在轨定标方程和定标曲线

并分析了定标精度。

Abstract

The solar irradiance monitor (SIM)

a payload on the FY-3A satellite

is mainly used to monitor the change of solar irradiance. The SIM with wide angle of viewing field scans the sun every orbit. This kind design simplifies the system structure

but makes the on-orbit calibration more difficult. Based on the data obtained by SIM in more than one year

we study the factors that affect the calibration precision experimentally and theoretically

giving the equation and curve. First

by the ground-calibration experiment comparing with the World Radiometric Reference (WRR)

we get the scale factors of the three radiometers

=1.0083

=1.0066

and

=1.0065. Then

by the theoretical analysis of distance between sun and earth and the data curve of the solar irradiance measured

it is proved that the max solar irradiance is at perihelion (3 January) and the min solar irradiance is at aphelion(3 July)

and the solar irradiance changes at the range of 3.34% with the time variant. Using the astronomical formula and based on the correct time in the remote packages

gets the distance correction factor between sun and earth. It is obvious that the distance between sun and earth affects the calibration precision. In addition

analyzing the affection of the space background on the calibration precision and gets the calibration formula of the space irradiance. Furthermore

combining the characteristics of the wide field of view and the measurement method of step-scanning sun

the effects of the difference from incidence angle between just and over capturing sunlight on the solar irradiation measurement are mainly analysed

geting the the formula of the correction factor and curve with analysing the geometric parameters.Finally analyzing all of correction factors

the on-orbit calibration formula and curve are given.

关键词

太阳辐射监测入射角在轨定标

Keywords

solar irradiance monitorincidence angleon-orbit calibration

references

Wang R Q, W S R, Li F T, et al. Data process and validation for FY-3A solar backscatter ultraviolet spectrometer

. Optics and Precision Engineering (光学精密工程), 2010, 18 (5):1086-1089 (in Chinese).

Wang Y P, Fang W, Yu B X. Stray light characteristics of WFOV absolute radiometer

. Optics and Precision Enginee-ring (光学精密工程), 2008, 16 (3):433-437 (in Chinese).

Crommelynck D A, Dewitte S. Metrology of total solar irradiance monitoring

. Adv. Space Res., 1999, 24 (2):195-204.

Yang D J, Fang W, Wang Y P. The data processing platform of the solar irradiance calibration based on the MATLAB GUI

. Computer Measurement & Control (计算机测量与控制), 2009, 17 (7):1426-1428 (in Chinese).

Mai Z Q, Li F Y, Ren J W, et al. The long term working stability of space borne calibration LED light source

. Chin. J. Lumin. (发光学报), 2007, 28 (5):748-753 (in Chinese).

Wang W, Fang W, Yu B X. Research on calibrated factors of STIM on FY-3 satellite

. J. Changchun University of Science and Technology (长春理工大学学报), 2003, 26 (3):82-91 (in Chinese).

Yu B X, Fang W. Solar radiation measurement on ShenZhou-3 spacecraft

. Chinese Journal of Space Science (空间科学学报), 2004, 24 (2):119-123(in Chinese).

Wang R, Song K F. High-accuracy radiance calibration system for ultraviolet detector

. Optics and Precision Enginee-ring (光学精密工程), 2009, 17 (3):469-474 (in Chinese).

Yu B X, Fang W, Wang Y P. Radiation exchange and temperature response function of the absolute radiometer with wide field of view mounted on the satellite

. Optics and Precision Engineering (光学精密工程), 2004, 12 (4):353-358 (in Chinese).

Wan Z H, Ren J W, Li X S H, et al. The development of a kind of apparatus for measuring infrared spectral emissivity

. Chin. J. Lumin.(发光学报), 2008, 29 (1):200-203 (in Chinese).

Kopp G, Heuerment K, Lawrence G. The total irradiance monitor (TIM): Instrument calibration

. Solar Physics, 2005, 230 (1-2):91-109.

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