Infrared and Laser Engineering, Volume. 49, Issue 11, 20201045(2020)

Research on the development of the detection satellite technology in oceanographic lidar

Yang Zhang1...2, Weidong Huang2,*, Changzhe Dong1,2, Jinru Yuan1,2, Yan He3,4,*, Yuan Wan3,4, Zijun Wang1,2, Liping Chen3, Xiaopeng Zhu3, Huaguo Zang3, Lingbing Bu5, and Jiqiao Liu34 |Show fewer author(s)
Author Affiliations
  • 1Shanghai Institute of Satellite Engineering, Shanghai 201109, China
  • 2Shanghai Academy of Spaceflight Technology, Shanghai 201109, China
  • 3Shanghai Institute of Optics and Fine Mechanics, Chinese Academy of Sciences, Shanghai 201800, China
  • 4University of Chinese Academy of Sciences, Beijing 100049, China
  • 5Institute of Remote Sensing, Nanjing University of Information Science and Technology, Nanjing 210044, China
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    Figures & Tables(17)
    Airborne LiDAR system (LADM-Ⅰ,LADM-Ⅱ,Mapper-5000) by Shanghai Institute of Optics and Fine Mechanics[9, 11]
    Ocean data products of airborne (Mapper-5000) double frequency lidar[9, 11]
    Graphical representation of light transmission in various kinds of natural water[12]
    Plan of NASA Earth science decadal survey
    Flight calibration prototype test of atmospheric lidar
    Expected data products of future spaceborne ocean lidar
    Plankton layer within a warm-core eddy in the Gulf of Alaska and the positions of individual fish that were detected in the Oregon coast[8]
    Diagram of the chlorophyll concentration measurement[22]
    Brillouin scattering signal varies with temperature and absorption by water[4, 17-21]
    Schematic diagram of measuring shallow water depth and sea ice elevation[11]
    Prototype of high power blue-green laser
    ALADIN wind lidar opto-mechanical structure
    Ocean lidar detector simulation of dynamic range[9, 11]
    • Table 1.

      Parameters of international representative airborne lidar systems[9-10]

      国外典型机载激光雷达技术指标[9-10]

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      Table 1.

      Parameters of international representative airborne lidar systems[9-10]

      国外典型机载激光雷达技术指标[9-10]

      ParametersHawkeye Ⅲ(Leica)CZMIL (Optech)LADS HD (Fugro)
      Instrument image
      Measuring objectOcean & LandOcean & LandOcean
      TechniqueMultichannel simulation probeMultichannel simulation probeSimulation probe
      Wavelength532 nm,1064 nm & 1550 nm532 nm & 1064 nm532 nm & 1064 nm
      Investigation depth0.15-50 m0.15-50 m0.15-50 m
      Detecting precision0.36 m (50 m)0.36 m (50 m)0.36 m (50 m)
      Detecting precision10 kHz (Ocean) 500 kHz (Land)10 kHz (Ocean) 70 kHz (Land)3 kHz (Ocean)
      Aspect angle40°40°30°
      Grid density0.8 m×0.8 m (Ocean) 0.1 m×0.1 m (Land)0.8 m×0.8 m (Ocean) 0.3 m×0.3 m (Land)1.4 m×1.4 m (Ocean)
    • Table 2.

      Parameters of the third airborne lidar system by Shanghai Institute of Optics and Fine Mechanics

      上海光学精密机械研究所研制三代机载激光雷达技术参数

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      Table 2.

      Parameters of the third airborne lidar system by Shanghai Institute of Optics and Fine Mechanics

      上海光学精密机械研究所研制三代机载激光雷达技术参数

      ParametersLADM-ⅠLADM-ⅡMapper-5000
      Wavelength1 064 nm & 532 nm1 064 nm & 532 nm1 550 nm,1 064 nm & 532 nm
      Repetition frequency200 Hz1 kHz5 kHz
      Grid density5 m×5 m2.5 m×2.5 m1 m×1 m (Ocean) 0.25 m×0.25 m (Land)
      Weight300 kg350 kg98 kg
    • Table 3.

      Parameters of the airborne Mapper-5000 (the third) double frequency lidar

      机载Mapper-5000 (第三代)双频激光雷达海陆技术指标

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      Table 3.

      Parameters of the airborne Mapper-5000 (the third) double frequency lidar

      机载Mapper-5000 (第三代)双频激光雷达海陆技术指标

      ParametersOceanLand
      Wavelength1 064 nm & 532 nm1 550 nm
      Repetition frequency5 kHz100-400 kHz
      Grid density1 m×1 m0.25 m×0.25 m
      Scanned area±15°±30°
      Flight altitude100-1 500 m
      Vertical accuracy0.12 m
      Investigation depth0.25-51 m
      Detecting precision0.23 m
      Position accuracy0.26 m
      Power dissipation1.2 kW
    • Table 4.

      Features of spaceborne ocean lidar

      星载海洋探测激光雷达特点

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      Table 4.

      Features of spaceborne ocean lidar

      星载海洋探测激光雷达特点

      Target of detectionTheoryRepeated frequencySingle pulse energySNRFrequency stability
      ForestHeight measurementHighLesserEsserGeneral
      MappingHeight measurementHighestLesserEsserGeneral
      AerosolBack scatteringGeneralBiggishBiggishGeneral
      Atmospheric compositionDifferential absorptionGeneralBiggishBiggishBiggish
      Wind fieldDopplerGeneralBiggishBiggishMaximum
      OceanBack scatteringGeneralMaximumMaximumMaximum
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    Yang Zhang, Weidong Huang, Changzhe Dong, Jinru Yuan, Yan He, Yuan Wan, Zijun Wang, Liping Chen, Xiaopeng Zhu, Huaguo Zang, Lingbing Bu, Jiqiao Liu. Research on the development of the detection satellite technology in oceanographic lidar[J]. Infrared and Laser Engineering, 2020, 49(11): 20201045

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    Paper Information

    Category: Issue-Space-borne laser altimetry technology

    Received: Aug. 6, 2020

    Accepted: --

    Published Online: Jan. 4, 2021

    The Author Email: He Yan (heyan@siom.ac.cn)

    DOI:10.3788/IRLA20201045

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