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气象卫星可见光红外光学成像仪发展沿革

杨忠东 刘健

杨忠东, 刘健. 气象卫星可见光红外光学成像仪发展沿革. 应用气象学报, 2016, 27(5): 592-603. DOI: 10.11898/1001-7313.20160508..
引用本文: 杨忠东, 刘健. 气象卫星可见光红外光学成像仪发展沿革. 应用气象学报, 2016, 27(5): 592-603. DOI: 10.11898/1001-7313.20160508.
Yang Zhongdong, Liu Jian. A review of visible infrared imaging radiometer on meteorological satellite. J Appl Meteor Sci, 2016, 27(5): 592-603. DOI:  10.11898/1001-7313.20160508.
Citation: Yang Zhongdong, Liu Jian. A review of visible infrared imaging radiometer on meteorological satellite. J Appl Meteor Sci, 2016, 27(5): 592-603. DOI:  10.11898/1001-7313.20160508.

气象卫星可见光红外光学成像仪发展沿革

DOI: 10.11898/1001-7313.20160508
详细信息
    通信作者:

    杨忠东, email: yangzd@cma.gov.cn

A Review of Visible Infrared Imaging Radiometer on Meteorological Satellite

  • 摘要: 该文回顾了环境气象卫星可见光红外光学成像遥感仪器50多年的发展历程,从不同时期在轨运行的近百台 (套) 仪器中选择了12种作为代表,结合仪器功能性能技术指标和应用需求梳理分析了其历史发展脉络和主流业务发展趋势,并初步探讨了创新发展方向。50多年的发展可以分为3个阶段:早期探索20年, 美国第1代探索性仪器,开创了气象卫星对地观测的先河;初步应用20年, 基本形成初步应用格局,欧洲、中国等开始发展自己的环境气象卫星光学成像遥感仪器;稳定应用和进步发展10多年。新一代极轨卫星可见光红外光学成像遥感仪器,其典型特征是光谱波段20个以上,谱段带宽窄,光谱范围全面覆盖0.4~15 μm,辐射测量精度高,空间分辨率为200~1000 m,其改进型仪器代表了未来极轨气象卫星主流业务发展趋势。静止气象卫星可见光红外光学成像遥感仪器未来主流业务发展方向的典型特点是光谱波段15个以上,谱段带宽较窄,光谱范围全面覆盖0.4 ~15 μm,辐射测量精度高,空间分辨率为500~2000 m,圆盘图成像速度可达到分钟级,区域扫描速度更快。
  • 表  1  AVHRR/3光谱和辐射特性

    Table  1  The spectral and radiometric characterization of AVHRR/3

    中心波长/μm 光谱区间/μm SNR/NEdT
    0.630 0.580~0.68 9 @ 0.5%反照率
    0.862 0.725~1.00 9 @ 0.5%反照率
    1.610 1.58~1.64 20 @ 0.5%反照率
    3.740 3.55~3.93 0.12 K @ 300 K
    10.80 10.3~11.3 0.12 K @ 300 K
    12.00 11.5~12.5 0.12 K @ 300 K
    下载: 导出CSV

    表  2  IMAGER光谱和辐射特性

    Table  2  The spectral and radiometric characterization of IMAGER

    中心波长/μm 光谱区间/μm SNR/NEdT
    0.65 0.55~0.75 250 @ 100%反照率
    3.90 3.80~4.00 0.11 K @ 300 K
    6.55 5.80~7.30 0.14 K @ 300 K
    10.70 10.2~11.2 0.09 K @ 300 K
    13.35 13.0~13.7 0.70 K @ 300 K
    下载: 导出CSV

    表  3  MODIS光谱和辐射特性[56]

    Table  3  The spectral and radiometric characterization of MODIS (from reference [56])

    主要用途 波段 波段范围* 光谱辐射/
    (W·m-2·sr-1·μm-1)
    SNR/NEdT/K
    陆地/云/边界层气溶胶 1 620~670 21.8 128
    2 841~876 24.7 201
    陆地/云/气溶胶特性 3 459~479 35.3 243
    4 545~565 29.0 228
    5 1230~1250 5.4 74
    6 1628~1652 7.3 275
    7 2105~2155 1.0 110
    海洋水色/浮游生物/
    生物地球化学
    8 405~420 44.9 880
    9 438~448 41.9 838
    10 483~493 32.1 802
    11 526~536 27.9 754
    12 546~556 21.0 750
    13 662~672 9.5 910
    14 673~683 8.7 1087
    15 743~753 10.2 586
    16 862~877 6.2 516
    大气水汽 17 890~920 10.0 167
    18 931~941 3.6 57
    19 915~965 15.0 250
    地表/云温度 20 3.660~3.840 0.45(300 K) 0.05
    21 3.929~3.989 2.38(335 K) 2.00
    22 3.929~3.989 0.67(300 K) 0.07
    23 4.020~4.080 0.79(300 K) 0.07
    大气温度 24 4.433~4.498 0.17(250 K) 0.25
    25 4.482~4.549 0.59(275 K) 0.25
    卷云水汽 26 1.360~1.390 6.00 150(SNR)
    27 6.535~6.895 1.16(240 K) 0.25
    28 7.175~7.475 2.18(250 K) 0.25
    云特征 29 8.400~8.700 9.58(300 K) 0.05
    臭氧 30 9.580~9.880 3.69(250 K) 0.25
    地表/云温度 31 10.780~11.280 9.55(300 K) 0.05
    32 11.770~12.270 8.94(300 K) 0.05
    云顶高度 33 13.185~13.485 4.52(260 K) 0.25
    34 13.485~13.785 3.76(250 K) 0.25
    35 13.785~14.085 3.11(240 K) 0.25
    36 14.085~14.385 2.08(220 K) 0.35
      注:*波段1~19光谱单位:nm; 波段20~36光谱单位:μm。
    下载: 导出CSV

    表  4  3MI主要特性和用途[64]

    Table  4  The main characterizations and usages of 3MI (from reference [64])

    3MI 中心波
    长/μm
    光谱带
    宽/nm
    SNR@xx.x/
    (W·m-2·sr-1·μm-1)
    极化 主要用途
    可见光近红外谱段 0.410 20 100 @ 35.4 Y 吸收气溶胶,火山灰云
    0.443 20 100 @ 48.9 Y 吸收气溶胶
    0.490 20 100 @ 55.6 Y 气溶胶,地表反照率,云反射率,光学厚度
    0.555 20 100 @ 55.2 Y 地表反照率
    0.670 20 100 @ 44.1 Y 气溶胶光学特性
    0.754 20 200 @ 36.6 N 云,气溶胶高度
    0.763 10 200 @ 36.1 N 云,气溶胶高度
    0.865 40 100 @ 28.2 Y 植被,气溶胶,云,地表特征
    0.910 20 200 @ 25.2 N 水汽,大气校正
    短波红外谱段 0.910 20 200 @ 25.2 N 水汽,大气校正
    1.370 40 100 @ 10.7 Y 卷云,水汽图像
    1.650 40 100 @ 6.8 Y 气溶胶反演中的地表特性
    2.130 40 100 @ 2.9 Y 气溶胶反演中的地表特性,云微物理
    下载: 导出CSV
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  • 收稿日期:  2016-06-27
  • 修回日期:  2016-07-15
  • 刊出日期:  2016-09-30

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