• Chinese Journal of Lasers
  • Vol. 49, Issue 6, 0604003 (2022)
Yongzhang Yang1、*, Honglin Fu1, Shangbiao Sun2, Dongsheng Zhai1, Zhulian Li1, and Yuqiang Li1
Author Affiliations
  • 1Yunnan Observatories, Chinese Academy of Sciences, Kunming, Yunnan 650216, China
  • 2State Key Laboratory of Information Engineering in Surveying, Mapping and Remote Sensing, Wuhan University, Wuhan, Hubei 430072, China
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    DOI: 10.3788/CJL202249.0604003 Cite this Article Set citation alerts
    Yongzhang Yang, Honglin Fu, Shangbiao Sun, Dongsheng Zhai, Zhulian Li, Yuqiang Li. Corner Retroreflector Direction Optimization for Lunar Laser Ranging[J]. Chinese Journal of Lasers, 2022, 49(6): 0604003 Copy Citation Text show less
    Schematic of reflected light for corner retroreflector
    Fig. 1. Schematic of reflected light for corner retroreflector
    Effective diffraction region of corner retroreflector at different incidence conditions. (a) φ=0°;(b) φ=25°;(c) φ=50°
    Fig. 2. Effective diffraction region of corner retroreflector at different incidence conditions. (a) φ=0°;(b) φ=25°;(c) φ=50°
    Diffraction area ratio of corner retroreflector changed with incident angle
    Fig. 3. Diffraction area ratio of corner retroreflector changed with incident angle
    Positions of the simulated corner retroreflector and existing corner retroreflector on the lunar surface[2]
    Fig. 4. Positions of the simulated corner retroreflector and existing corner retroreflector on the lunar surface[2]
    Angles between the J2000.0 geocentric pointing retroreflector in the Mare Nectaris and the laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Fig. 5. Angles between the J2000.0 geocentric pointing retroreflector in the Mare Nectaris and the laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Angles between J2000.0 geocentric pointing retroreflector in Shacklten Crater and laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Fig. 6. Angles between J2000.0 geocentric pointing retroreflector in Shacklten Crater and laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Angles between J2000.0 geocentric pointing retroreflector in CE-3 landed area and laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Fig. 7. Angles between J2000.0 geocentric pointing retroreflector in CE-3 landed area and laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Angles between optimized pointing retroreflector in Shacklten Crater and laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Fig. 8. Angles between optimized pointing retroreflector in Shacklten Crater and laser beam from different ground stations. (a) APOLLO; (b) GRASSE; (c) YNAO
    Monthly cumulative effective observation area of ground stations by optimized pointing retroreflector on three typical regions. (a) CE-3; (b) Mare Nectaris; (c) Shacklten Crater
    Fig. 9. Monthly cumulative effective observation area of ground stations by optimized pointing retroreflector on three typical regions. (a) CE-3; (b) Mare Nectaris; (c) Shacklten Crater
    Yongzhang Yang, Honglin Fu, Shangbiao Sun, Dongsheng Zhai, Zhulian Li, Yuqiang Li. Corner Retroreflector Direction Optimization for Lunar Laser Ranging[J]. Chinese Journal of Lasers, 2022, 49(6): 0604003
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