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Coverage of Lunar Farside Surface of the Earth-Moon L2 Periodic Orbits
- LIU Lei1,2,3, CAO Jianfeng1,2, HU Songjie1,2, TANG Geshi1,2
Author information
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1. Science and Technology on Aerospace Flight Dynamics Laboratory,Beijing 100094,China;
2. Beijing Aerospace Control Center,Beijing 100094,China;
3. Science College of National University of Defense Technology,Changsha 410073,China
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History
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Received |
Revised |
01 Jun 2017 |
04 Aug 2017 |
Issue Date |
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20 May 2022 |
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Orbits nearby the Earth-Moon libration points have the specific dynamic characteristicsand are the preferred position of relay satellites for the lunar farside exploration. For relay requirements of the future lunar farside exploration, the surface coverage of the Earth-Moon L2 periodic orbits is studied. Firstly, the continuation method calculating the halo orbit family is proposed with the circular restricted three-body problem. The south and north halo families with a large scope are calculated in the Earth-Moon system. Secondly, the coverage model of the lunar farside surface is presented for the relay satellites. The coverage factors are consequently defined. Finally, the coverage is numerically simulated. The results show that the coverage capacity is decided by the amplitude and style of L2 orbits. A halo orbit with small amplitude has an excellent entire coverage capacity, while a large one has a better coverage capacity for the south or north poles. Furthermore, the research can provide a beneficial reference for the orbit design of the future CHANG’E-4 mission.
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References
[1] Lo M W. The interplanetary superhighway and the origins program[C]// IEEE Space 2002 Conference. Big Sky,MT,US:IEEE,2002.
[2] Wu W R,Liu Y,Liu L,et al. Pre-LOI trajectory maneuvers of CHANG’E-2 libration point mission [J]. Science China,2012,55(6):1249-1258
[3] Liu L,Liu Y,Cao J. et al. Chang’E-2 lunar escape maneuvers to the Sun-Earth L2 libration point mission[J]. Acta Astronautica,2014,93:390-399
[4] Liu L,Cao J,Liu Y. et al. Chang’E-3 contingency scheme and trajectory[J]. Advances in Space Research,2015,55:1074-1084
[5] Angelopoulos V. The Artemis mission[J]. Space Science Reviews,2011,165:3-25
[6] 刘磊,唐歌实,胡松杰,等. 月球探测再入返回后续飞行方案研究[J]. 宇航学报,2015,36(1):9-17
Liu L,Tang G S,Hu S J,et al. Follow-up flight scheme for the reentry test of China lunar exploration [J]. Journal of Astronautics,2015,36(1):9-17
[7] Liu L,Li J S. CHANG’E-5T1 extended mission:the first lunar libration point flight via a lunar swing-by[J]. Advances in Space Research,2016,58(4):609-618
[8] Chow N,Gralla E. Low Earth orbit constellation design using the Earth-Moon L1 point [D]. New Jersey:Princeton University,2004.
[9] Richardson D L. Analytic construction of periodic orbits about the collinear points[J]. Celestial Mechanics and Dynamical Astronomy,1980,22(3):241-253
[10] 刘磊,刘勇,曹建峰,等. halo轨道族延拓方法及特性研究[J]. 中国空间科学技术,2013,33(1):30-36
Liu L,Liu Y,Cao J F,et al. Kinetic characteristics and continuation algorithm of periodic families [J]. Chinese Space Science and Technology,2013,33(1):30-36
[11] 李庆扬,莫孜中,祁力群. 非线性方程组的数值解法[M]. 北京:科学出版社,1997.
Li Q Y,Mo Z Z,Qi L Q. Numerical methods for non-linear equation group [M]. Beijing:Science Press,1997.