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联合卫星雷达高度计和辐射计数据的海面高风速反演方法评估

张有广 林静

张有广,林静. 联合卫星雷达高度计和辐射计数据的海面高风速反演方法评估[J]. 海洋学报,2025,47(x):1–11
引用本文: 张有广,林静. 联合卫星雷达高度计和辐射计数据的海面高风速反演方法评估[J]. 海洋学报,2025,47(x):1–11
Zhang Youguang,Lin Jing. Evaluation of Sea Surface High Wind Speed Inversion Method Using Joint Satellite Radar Altimeter and Radiometer Data[J]. Haiyang Xuebao,2025, 47(x):1–11
Citation: Zhang Youguang,Lin Jing. Evaluation of Sea Surface High Wind Speed Inversion Method Using Joint Satellite Radar Altimeter and Radiometer Data[J]. Haiyang Xuebao,2025, 47(x):1–11

联合卫星雷达高度计和辐射计数据的海面高风速反演方法评估

基金项目: 国家重点研发计划新型海洋观测资料同化技术支撑(2021YFC3101502)。
详细信息
    作者简介:

    张有广(1971—),男,山东省济南市人,研究员,从事海洋微波遥感研究。E-mail:zhangyouguang@mail.nsoas.org.cn

    通讯作者:

    林静(1999—),女,福建省莆田市人,硕士研究生,从事海面风场研究。E-mail:2213400005@hhu.edu.cn

Evaluation of Sea Surface High Wind Speed Inversion Method Using Joint Satellite Radar Altimeter and Radiometer Data

  • 摘要: 基于2002年-2020年的Jason系列卫星数据,利用一种高风速计算方法得到431次飓风的风速信息。在此基础上,利用基于再分析的美国飓风中心(The National Hurricane Center, NHC)大西洋和东北太平洋飓风最佳路径数据集进行比对分析,对高风速计算方法进行了综合评估。文中计算和评估结果显示,8.03-66.93 m/s飓风风速RMSE优于4 m/s;卫星观测风速和NHC飓风最佳路径数据相关系数在0.9以上。这表明文中方法是可靠的,具备热带气旋高风速观测能力。同时,文中结果显示,飓风观测期间几乎都伴随着不同程度的降雨,当风速大于50 m/s时,卫星观测点均处于中到暴雨的环境下。文中研究证明了利用卫星雷达高度计和校正辐射计这对主被动微波遥感器联合获取极端海洋环境下风速信息的可行性,这为提升台风或飓风风速观测能力提供了一种有潜力的技术手段。另外,统计结果显示飓风期间风速和气压也具备很好的线性相关性,利用这种关系可以基于卫星获取的高风速信息来快速计算得到热带气旋中心气压,这将形成卫星对热带气旋风速和中心气压的同步获取能力。
  • 图  1  HY-2B/C/D卫星雷达高度计联合观测海面风速

    Fig.  1  Joint observation of sea surface wind speed with HY-2B/C/D satellite

    图  2  Jason-1/2/3卫星雷达高度计联合观测海面风速

    Fig.  2  Joint observation of sea surface wind speed with Jason-1/2/3 satellite

    图  3  HY-2B观测台风“布拉万”风速修正前后比较

    Fig.  3  Comparison of THPHOON BOLAVEN wind speed before and after correction

    图  4  FY-2G卫星观测TBB(Black Body Temperature)亮温与HY-2B观测轨迹

    Fig.  4  Observations of TBB (Black Body Temperature) brightness temperature by FY-2G satellite and the observation trajectory of HY-2B

    图  5  HY-2C观测台风 “苏拉”风速修正前后比较

    Fig.  5  Comparison of THPHOON SAOLA wind speed before and after correction

    图  6  FY-2G卫星观测TBB亮温与HY-2C观测轨迹

    Fig.  6  Observations of TBB brightness temperature by FY-2G satellite and the observation trajectory of HY-2C

    图  7  Jason-1/2/3观测W0W和NHC风速

    Fig.  7  Jason-1/2/3 observed W0, W and NHC wind speed

    图  8  2017年9月20日飓风“MARIA”中观测点位置、降雨率分布和Jason-3观测轨迹 (风速66.93 m/s)

    Fig.  8  Observation Point Location, Rainfall Rate Distribution and Jason-3 Observation trajectory in Hurricane "MARIA" on September 20, 2017 (Wind Speed 66.93 m/s)

    图  9  2018年10月3日飓风“SERGIO”中观测点位置、降雨率分布和Jason-2观测轨迹(风速56.16 m/s)

    Fig.  9  Observation Point Location, Rainfall Rate Distribution and Jason-2 Observation trajectory in Hurricane "SERGIO" on October 3, 2018 (Wind Speed 56.16 m/s)

    图  10  2002年5月30日飓风“ALMA”中观测点位置、降雨率分布和Jason-1观测轨迹(风速50.33 m/s)

    Fig.  10  Observation Point Location, Rainfall Rate Distribution and Jason-1 Observation trajectory in Hurricane ALMA on May 30, 2002 (Wind Speed 50.33 m/s)

    图  11  50 m/s以上风速对应的W、W0、ΔWRr

    Fig.  11  W, W0, ΔW and Rr corresponding to wind speeds above 50 m/s

    图  12  Jason-1/2/3卫星观测点对应WW0和NHC风速、气压、降雨率对比分析

    Fig.  12  Comparative analysis of between WW0 corresponding to Jason-1/2/3 satellite observation points and wind speed, air pressure, rainfall rate of NHC

    表  1  Jason系列和HY-2系列卫星雷达高度计基本信息

    Tab.  1  Basic information of Jason and HY-2 series satellite radar altimeters

    卫星 在轨时间 主要技术指标 功能
    Jason-1 2001年-2013年 1. 卫星观测重复周期10天;2. 雷达高度计观测频段:
    Ku (13.575 GHz), C (5.3 GHz);3. 微波辐射计观测频
    段:18.7 GHz,23.8 GHz和34 GHz。
    获取全球海面高度、有效波高和海面风速、后向散射系数、亮度温度、大气水汽含量、液水含量等信息。
    Jason-2 2008年-2019年
    Jason-3 2016年-至今
    HY-2B 2018年-至今 1.卫星观测重复周期14天(B星)和10天(C/D星);2.雷达高度计观测频段:Ku (13.58 GHz), C (5.25 GHz);3.校正辐射计观测频段:18.7 GHz,23.8 GHz和37 GHz。
    HY-2C 2020年-至今
    HY-2D 2021年-至今
    下载: 导出CSV

    表  2  Gourrion模型参数表1[8]

    Tab.  2  Gourrion Model parameters 1[8]

    参数 a b
    σ° 0.34336 0.06909
    SWH 0.08725 0.06374
    U10 0.1 0.02844
    下载: 导出CSV

    表  3  Gourrion模型参数表2[8]

    Tab.  3  Gourrion Model parameters 2[8]

    参数 矩阵元素
    $ \overline{{W}_{x}} $ 33.95062 11.03394
    3.93428 0.05834
    $ \overline{{W}_{y}} $ 0.54012 10.40481
    $ \overline{{B}_{x}} $ 18.06378 0.37228
    $ \overline{{B}_{y}} $ 2.28387
    $ \stackrel{\rightharpoonup}{P} $ $ {a}_{{\sigma }^{0}}+{b}_{{\sigma }^{0}}{\sigma }^{0} $ $ {a}_{SWH}+{b}_{SWH}SWH $
    下载: 导出CSV

    表  4  HY-2B/C卫星台风观测(1.5 h,50 km)与CMA比较

    Tab.  4  Comparison between HY-2B/C satellite typhoon observation (1.5 h, 50 km) and CMA

    序号 台风名称 数据源 日期
    (yy-mm-dd)
    纬度(N°) 经度(E°) $ {\sigma }_{Ku}^{0} $
    (dB)
    $ {\sigma }_{C}^{0} $
    (dB)
    W0
    (m·s−1)
    T18
    (K)
    W
    (m·s−1)
    CMA风速
    (m/s)
    观测距离
    (km)
    降雨率
    (mm·hr−1)
    1 WIPHA B 2019-08-01 20.88 110.72 12.22 13.9 12.05 183.46 24.30 23 24.61 1.4
    2 KAMMURI B 2019-12-02 13.02 125.48 9.75 12.46 21.06 199.13 41.39 48 13.51 7.9
    3 PHANFONE B 2019-12-27 14.97 116.63 10.37 12.37 19.18 180.0 34.44 30 24.91 8.8
    4 Molave B 2020-10-27 14.14 110.56 9.37 12.13 22.50 197.70 43.30 45 26.55 3.2
    5 SURIGAE C 2021-04-15 8.56 135.41 11.51 12.77 14.36 190.43 29.43 28 35.02 6.1
    6 MINDULLE C 2021-09-26 19.28 136.43 9.05 10.06 23.60 209.07 47.31 52 45.74 3.0
    下载: 导出CSV

    表  5  HY-2B卫星台风观测(1.5 h,50 km以内)与JTWC 比较

    Tab.  5  Comparison between HY-2B satellite typhoon observation (1.5 h, 50 km) and JTWC

    序号 台风名称 数据源 日期
    (yy-mm-dd)
    纬度(N°) 经度(E°) $ {\sigma }_{Ku}^{0} $
    (dB)
    $ {\sigma }_{C}^{0} $
    (dB)
    W0
    (m·s−1)
    T18
    (K)
    W
    (m·s−1)
    JTWC风速
    (m·s−1)
    观测距离
    (km)
    降雨率
    (mm·hr−1)
    1 WIPHA JTWC 2019-08-01 20.88 110.72 12.22 13.9 12.05 183.46 24.30 20 42.94 1.4
    2 BUALOI JTWC 2019-10-23 21.08 142.44 7.00 10.04 29.04 222.12 59.46 60 30.03 9.1
    下载: 导出CSV

    表  6  Jason-1/2/3卫星主要观测信息统计

    Tab.  6  Statistical analysis of main observation information of Jason-1/2/3 satellite

    数据源观测最大风速/(m·s−1)观测最小风速/(m·s−1)相关系数平均偏差
    (m·s−1)
    RMSE
    (m·s−1)
    观测数据
    点数
    WNHCWNHC
    Jason-159.40(原26.69)508.03(原5.12)12.50.940.043.53195
    Jason-258.63(原24.95)57.58.39(原5.09)100.95-0.403.49158
    Jason-366.93(原28.18)67.58.89(原4.37)12.50.95-0.233.8278
    Jason-1/2/366.93(原28.18)67.58.03(原5.12)12.50.95-0.173.57431
    下载: 导出CSV

    表  7  短时气象服务降雨量等级划分表

    Tab.  7  Classification of Rainfall Levels for Short term Meteorological Services 单位:mm

    等级时段
    10 min30 min1 h
    短时小雨<0.5<1.0<2.0
    短时中雨0.5~0.91.0~1.92.0~3.9
    短时大雨1.0~1.92.0~3.94.0~7.9
    短时暴雨2.0~4.94.0~9.98.0~19.9
    短时大暴雨5.0~15.010.0~30.020.0~50.0
    短时特大暴雨>15.0>30.0>50.0
    下载: 导出CSV

    表  8  50 m/s以上风速和降雨统计

    Tab.  8  Statistics of wind speed and rainfall above 50 m/s

    Jason
    卫星编号
    飓风名称 观测日期
    (日-月-年)
    纬度(N°) 经度
    (E°)
    W
    (m·s−1)
    W0
    (m·s−1)
    ΔW
    (m·s−1)
    Rr
    (mm·hr−1)
    备注
    3 MARIA 20-Sep-17 17.65 −66.80 66.93 28.18 38.75 10.7 暴雨
    1 JEANNE 25-Sep-04 26.53 −76.70 59.40 26.69 32.71 3.0 中雨
    2 OLAF 21-Oct-15 10.99 −142.71 58.63 24.95 33.68 4.8 大雨
    2 JOAQUIN 1-Oct-15 22.75 −74.62 56.71 26.93 29.78 10.5 暴雨
    2 DOLORES 15-Jul-15 18.06 −109.49 56.38 24.35 32.03 11.2 暴雨
    2 HECTOR 5-Aug-18 14.07 −135.72 56.27 27.23 29.04 8.5 暴雨
    2 SERGIO 3-Oct-18 12.15 −115.78 56.16 21.47 34.69 11.8 暴雨
    2 JIMENA 1-Sep-15 16.90 −140.42 55.58 21.41 34.17 5.5 大雨
    3 LEE 28-Sep-17 32.10 −57.30 52.59 22.05 29.16 14.09 暴雨
    2 MICHAEL 9-Oct-18 25.34 −85.77 51.91 24.43 27.48 9.0 暴雨
    2 IGOR 16-Sep-10 21.40 −57.80 51.88 22.37 30.16 4.84 大雨
    3 ROSA 28-Sep-18 16.98 −117.56 51.60 23.88 27.72 3.5 中雨
    1 ALMA 30-May-02 16.78 −114.96 50.33 22.17 28.16 19.9 暴雨
    3 MARIA 20-Sep-17 17.65 −66.80 66.93 28.18 38.75 10.7 暴雨
    下载: 导出CSV

    表  9  Jason-1/2/3卫星观测飓风风速信息统计(0.6 h 30 km内)

    Tab.  9  Jason-1/2/3 satellite observation of hurricane wind speed information statistics (within 0.6 h 30 km)

    Jason卫星编号 飓风名称 日期
    (dd-mm-yy)
    $ {\sigma }_{Ku}^{0} $
    (dB)
    $ {\sigma }_{C}^{0} $
    (dB)
    W0
    (m·s−1)
    T18
    (K)
    W
    (m·s−1)
    NHC
    (m·s−1)
    Rr
    (mm·hr−1)
    距离
    (km)
    绝对误差
    (m·s−1)
    时间间隔
    (mmss)
    1 KARL 22-Sep-04 10.41 11.98 15.59 238.28 42.43 45.00 7.71 19.71 2.57 1503
    1 MARIA 7-Sep-05 9.82 12.32 21.94 190.04 40.31 37.50 1.02 12.95 2.81 3244
    2 JOSE 13-Sep-17 11.04 12.62 15.41 203.84 34.10 35.00 3.83 28.55 0.90 1217
    3 GENEVIEVE 17-Aug-20 11.32 12.94 15.63 202.16 33.42 32.50 11.62 12.92 0.92 3124
    2 GEORGETTE 26-Jul-16 11.52 13.47 14.02 192.05 29.39 27.50 0.24 11.77 1.89 0044
    2 FIONA 20-Aug-16 11.41 13.73 14.40 172.78 26.14 22.50 2.73 13.23 3.64 1927
    2 ESTELLE 16-Jul-16 12.50 14.59 10.56 188.79 23.32 20.00 0.30 28.70 3.32 1355
    3 DEBBY 3-Aug-18 11.86 13.93 13.59 156.68 21.21 17.50 0.00 16.43 3.71 1600
    3 GABRIELLE 7-Sep-19 12.26 13.75 11.50 169.97 20.97 22.50 0.00 8.17 1.53 2307
    3 EMILIA 28-Jun-18 12.88 14.45 10.12 174.43 19.25 20.00 0.71 15.26 0.75 2824
    1 EMILIA 23-Jul-06 13.10 14.75 9.47 178.99 19.07 22.50 6.53 4.83 3.43 0107
    3 JULIETTE 8-Sep-19 13.12 14.33 9.04 172.37 17.27 15.00 0.08 12.81 2.27 2407
    2 KEVIN 1-Sep-15 13.20 15.00 8.12 166.11 14.94 15.00 0.57 25.52 0.06 0241
    2 LOWELL 17-Aug-14 14.28 14.99 4.75 177.28 11.65 15.00 2.86 22.68 3.35 1228
    RMSE=2.47 m/s, R=0.96
    下载: 导出CSV
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    [28] 窦贤豪. 基于星载雷达高度计的中高海况海面参数校正方法研究[D]. 武汉: 华中科技大学, 2021.

    Dou Xianhao Research on sea surface parameter correction method for medium and high sea condition based on spaceborne radar altimeter[D]. Wuhan: Huazhong University of Science & Technology, 2021.
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