Hu Liequn, Huang Zhen, Huang Weijun, et al. Application of cloud phase retrieval to snowstorm in akzo using MODIS data. J Appl Meteor Sci, 2012, 23(5): 609-613.
Citation: Hu Liequn, Huang Zhen, Huang Weijun, et al. Application of cloud phase retrieval to snowstorm in akzo using MODIS data. J Appl Meteor Sci, 2012, 23(5): 609-613.

Application of Cloud Phase Retrieval to Snowstorm in Akzo Using MODIS Data

  • Received Date: 2011-11-10
  • Rev Recd Date: 2012-06-12
  • Publish Date: 2012-10-31
  • Using satellite remote sensing information, the distribution of cloud-top particle can be retrieved and the physical mechanism of certain weather phenomenon can be explained. Nowadays, cloud phase inversion method based on passive remote sensing instruments on 8 μm, 11 μm and 12 μm spectral bands (corresponding to three MODIS infrared spectral channels: Ch29, Ch31 and Ch32) are relatively practical, which is called tri-spectral cloud phase inversion method. EOS/MODIS satellite data in Akzo Prefecture of Xinjiang and observations from relevant weather station are analyzed to study a snowstorm. The change of cloud phase is revealed by tri-spectral brightness and temperature difference scatter diagram, which clearly shows the whole process of cloud clustering from water cloud to hybrid cloud, and finally to ice cloud. It also reveals the physical mechanism how this weather system occurs and finally develops to blizzard. It can be seen that the result from tri-spectral cloud phase inversion method is completely according with actual circumstance. Therefore, it can be concluded that tri-spectral cloud phase inversion method has a theoretical advantage and a wide application foreground in practice. Meanwhile, this method of MODIS data cloud phase recognition can be applied to analysis of blizzard clouds by FY-3 satellite.
  • Fig. 1  Remote sensing images and analysis windows intercepted in Kuche County of Xinjiang from 22 to 24 in Nov 2006

    Fig. 2  Scatter diagram of brightness temperature difference in remote sensing data analysis windows in Kuche County of Xinjiang from 22 to 24 in Nov 2006

    Table  1  MODIS spectral channel characteristics of different pixels (reflectivity, emissivity)(unit:K)

    分类 晴空 低云 薄卷云 深对流云 局地云团 积雪
    通道1反射率 5.8~11.2 25.8~33.5 34.8~35.7 29.5~38.3 31.0~32.6 32.2~38.5
    通道2反射率 7.0~13.8 29.2~37.8 37.2~38.5 31.7~41.2 33.2~34.6 34.7~40.7
    通道6反射率 6.0~14.6 24.0~32.6 23.6~23.8 11.4~19.7 13.9~14.5 4.3~6.3
    通道7反射率 4.6~12.3 18.6~22.2 16.0~16.5 6.7~12.7 8.7~8.4 1.4~2.7
    通道18反射率 3.6~5.8 14.1~22.5 35.8~36.1 22.9~33.9 28.9~33.8 17.2~22.7
    通道26辐射率 0.3~0.9 1.0~4.4 14.1~24.4 10.1~22.0 17.6~21.8 0.8~1.5
    通道29辐射率 266.6~278.1 249.4~267.1 225.4~227.3 220.7~237.7 222.4~225.2 261.0~266.9
    通道31辐射率 268.8~281.4 250.0~270.0 221.3~223.1 218.8~231.8 219.4~222.8 260.9~267.7
    通道32辐射率 269.1~282.6 249.7~269.2 221.4~222.8 218.3~236.3 219.2~222.4 260.6~267.5
    DownLoad: Download CSV

    Table  2  Three spectral dispersions

    日期 天气现象 离散度/K R/%
    通道29 通道31 通道32
    2006-11-22 卷云积雨云晴空 12.81 2.58 2.54 45.6
    2006-11-23 积雨云 8.03 8.41 8.35 3.5
    2006-11-24 蔽光高层云 6.73 7.16 7.10 -7.1
    DownLoad: Download CSV

    Table  3  The average spectral matrix and its distribution in analysis windows

    日期 矩阵平均值/K 亮度温度差/K 亮温分布/K 冰云比例/%
    通道29 通道31 通道32 BTD (29,31) ≤240 240~250 250~260 剔除
    2006-11-22 257.0 257.2 256.9 -0.16 0 47 107 71 24.0
    2006-11-23 245.8 245.1 244.7 0.73 56 139 30 0 73.3
    2006-11-24 240.8 239.3 239.1 1.50 122 103 0 0 99.6
    DownLoad: Download CSV
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    • Received : 2011-11-10
    • Accepted : 2012-06-12
    • Published : 2012-10-31

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