• Acta Optica Sinica
  • Vol. 40, Issue 22, 2212003 (2020)
Yuandong Jia1、2, Jia Qiang1, Liang Zhang1、2, and Jianjun Jia1、2、*
Author Affiliations
  • 1Key Laboratory of Space Active Opto-Electronics Technology, Shanghai Institute of Technical Physics, Chinese Academy of Sciences, Shanghai 200083, China
  • 2University of Chinese Academy of Sciences, Beijing 100049, China
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    DOI: 10.3788/AOS202040.2212003 Cite this Article Set citation alerts
    Yuandong Jia, Jia Qiang, Liang Zhang, Jianjun Jia. Spaceborne Long-Distance Tracking Method Based on Adaptive Vibration Suppression[J]. Acta Optica Sinica, 2020, 40(22): 2212003 Copy Citation Text show less
    Structural diagram of laser ranging and tracking system
    Fig. 1. Structural diagram of laser ranging and tracking system
    Principle diagram of adaptive control of system
    Fig. 2. Principle diagram of adaptive control of system
    Inertial sensor and camera data. (a) Camera data under 20 s time length; (b) inertial sensor data; (c) camera data under 1 s time length; (d) inertial sensor data after down-sampling
    Fig. 3. Inertial sensor and camera data. (a) Camera data under 20 s time length; (b) inertial sensor data; (c) camera data under 1 s time length; (d) inertial sensor data after down-sampling
    Inertial sensor data after down-sampling
    Fig. 4. Inertial sensor data after down-sampling
    Principle diagram of adaptive filtering in case of down-sampling
    Fig. 5. Principle diagram of adaptive filtering in case of down-sampling
    Flow chart of data
    Fig. 6. Flow chart of data
    Motion curve of target
    Fig. 7. Motion curve of target
    Inertial sensor and camera data under 1 Hz vibration. (a) Inertial sensor; (b) camera
    Fig. 8. Inertial sensor and camera data under 1 Hz vibration. (a) Inertial sensor; (b) camera
    Restoration results of target and camera vibration information under 1 Hz vibration. (a) Target information at convergence state; (b) target information at steady state; (c) camera vibration at convergence state; (d) camera vibration at steady state
    Fig. 9. Restoration results of target and camera vibration information under 1 Hz vibration. (a) Target information at convergence state; (b) target information at steady state; (c) camera vibration at convergence state; (d) camera vibration at steady state
    Restoration results of target and camera vibration information under 40 Hz vibration. (a) Target information at convergence state; (b) target information at steady state; (c) camera vibration at convergence state; (d) camera vibration at steady state
    Fig. 10. Restoration results of target and camera vibration information under 40 Hz vibration. (a) Target information at convergence state; (b) target information at steady state; (c) camera vibration at convergence state; (d) camera vibration at steady state
    Inertial sensor and camera data under typical satellite vibration. (a) Inertial sensor; (b) camera
    Fig. 11. Inertial sensor and camera data under typical satellite vibration. (a) Inertial sensor; (b) camera
    Restoration results of target and camera vibration information under typical satellite vibration. (a) Target information at convergence state; (b) target information at steady state; (c) camera vibration at convergence state; (d) camera vibration at steady state
    Fig. 12. Restoration results of target and camera vibration information under typical satellite vibration. (a) Target information at convergence state; (b) target information at steady state; (c) camera vibration at convergence state; (d) camera vibration at steady state
    Laser ranging and tracking system. (a) Physical map; (b) structural diagram
    Fig. 13. Laser ranging and tracking system. (a) Physical map; (b) structural diagram
    Tracking errors under vibration with different frequencies. (a) 1 Hz; (b) 40 Hz
    Fig. 14. Tracking errors under vibration with different frequencies. (a) 1 Hz; (b) 40 Hz
    Yuandong Jia, Jia Qiang, Liang Zhang, Jianjun Jia. Spaceborne Long-Distance Tracking Method Based on Adaptive Vibration Suppression[J]. Acta Optica Sinica, 2020, 40(22): 2212003
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