• Acta Optica Sinica
  • Vol. 41, Issue 14, 1406001 (2021)
Yangyang Bai1、2, Yuanyao Cen1, Lixin Meng1、2, Leyi Zhang1, and Lizhong Zhang1、2、*
Author Affiliations
  • 1College of Mechatronic Engineering, Changchun University of Science and Technology, Changchun, Jilin 130022, China
  • 2Fundamental Science on Space-Ground Laser Communication Technology Laboratory,Changchun University of Science and Technology, Changchun, Jilin 130022, China
  • show less
    DOI: 10.3788/AOS202141.1406001 Cite this Article Set citation alerts
    Yangyang Bai, Yuanyao Cen, Lixin Meng, Leyi Zhang, Lizhong Zhang. Control Technology of Slave Optical Transceiver in Space Laser Communication Network[J]. Acta Optica Sinica, 2021, 41(14): 1406001 Copy Citation Text show less
    Network topology of space laser communication network
    Fig. 1. Network topology of space laser communication network
    Structure of optical transceiver system
    Fig. 2. Structure of optical transceiver system
    Structure of main optical transceiver
    Fig. 3. Structure of main optical transceiver
    Structure of slave optical transceiver
    Fig. 4. Structure of slave optical transceiver
    Overall control scheme of slave optical transceiver
    Fig. 5. Overall control scheme of slave optical transceiver
    Strapdown stability control principle
    Fig. 6. Strapdown stability control principle
    Strapdown system control scheme
    Fig. 7. Strapdown system control scheme
    Frequency characteristic experiment of azimuth axis from slave optical transceiver
    Fig. 8. Frequency characteristic experiment of azimuth axis from slave optical transceiver
    Frequency characteristic test of azimuth axis. (a) Amplitude frequency characteristic curve; (b) phase frequency characteristic curve
    Fig. 9. Frequency characteristic test of azimuth axis. (a) Amplitude frequency characteristic curve; (b) phase frequency characteristic curve
    Frequency characteristic identification of azimuth axis. (a) Amplitude frequency identification curve; (b) phase frequency identification curve
    Fig. 10. Frequency characteristic identification of azimuth axis. (a) Amplitude frequency identification curve; (b) phase frequency identification curve
    Structure of tracking differentiator (TD)
    Fig. 11. Structure of tracking differentiator (TD)
    Tracking error of PD control under differential velocity measurement
    Fig. 12. Tracking error of PD control under differential velocity measurement
    Tracking error of PD control with nonlinear tracking differentiator
    Fig. 13. Tracking error of PD control with nonlinear tracking differentiator
    Bode diagram of tracking system. (a) Amplitude frequency characteristics; (b) phase frequency characteristics
    Fig. 14. Bode diagram of tracking system. (a) Amplitude frequency characteristics; (b) phase frequency characteristics
    Hardware composition of airborne photoelectric pod in slave optical transceiver
    Fig. 15. Hardware composition of airborne photoelectric pod in slave optical transceiver
    Experiment on coarse tracking control of slave optical transceiver in network
    Fig. 16. Experiment on coarse tracking control of slave optical transceiver in network
    Azimuth axis tracking error under differential velocity measurement
    Fig. 17. Azimuth axis tracking error under differential velocity measurement
    Azimuth axis tracking error in differential velocimetry
    Fig. 18. Azimuth axis tracking error in differential velocimetry
    Yangyang Bai, Yuanyao Cen, Lixin Meng, Leyi Zhang, Lizhong Zhang. Control Technology of Slave Optical Transceiver in Space Laser Communication Network[J]. Acta Optica Sinica, 2021, 41(14): 1406001
    Download Citation