Gravity Recovery and Interior Laboratory (GRAIL): Mapping the Lunar Interior from Crust to Core

被引:104
|
作者
Zuber, Maria T. [1 ]
Smith, David E. [1 ]
Lehman, David H. [2 ]
Hoffman, Tom L. [2 ]
Asmar, Sami W. [2 ]
Watkins, Michael M. [2 ]
机构
[1] MIT, Dept Earth Atmospher & Planetary Sci, Cambridge, MA 02139 USA
[2] CALTECH, Jet Prop Lab, Pasadena, CA 91109 USA
基金
美国国家航空航天局;
关键词
Gravity; Moon; Lunar; Remote sensing; Spacecraft; MOON; CLEMENTINE; MASCONS; FIELD;
D O I
10.1007/s11214-012-9952-7
中图分类号
P1 [天文学];
学科分类号
0704 ;
摘要
The Gravity Recovery and Interior Laboratory (GRAIL) is a spacecraft-to-spacecraft tracking mission that was developed to map the structure of the lunar interior by producing a detailed map of the gravity field. The resulting model of the interior will be used to address outstanding questions regarding the Moon's thermal evolution, and will be applicable more generally to the evolution of all terrestrial planets. Each GRAIL orbiter contains a Lunar Gravity Ranging System instrument that conducts dual-one-way ranging measurements to measure precisely the relative motion between them, which in turn are used to develop the lunar gravity field map. Each orbiter also carries an Education/Public Outreach payload, Moon Knowledge Acquired by Middle-School Students (MoonKAM), in which middle school students target images of the Moon for subsequent classroom analysis. Subsequent to a successful launch on September 10, 2011, the twin GRAIL orbiters embarked on independent trajectories on a 3.5-month-long cruise to the Moon via the EL-1 Lagrange point. The spacecraft were inserted into polar orbits on December 31, 2011 and January 1, 2012. After a succession of 19 maneuvers the two orbiters settled into precision formation to begin science operations in March 1, 2012 with an average altitude of 55 km. The Primary Mission, which consisted of three 27.3-day mapping cycles, was successfully completed in June 2012. The extended mission will permit a second three-month mapping phase at an average altitude of 23 km. This paper provides an overview of the mission: science objectives and measurements, spacecraft and instruments, mission development and design, and data flow and data products.
引用
收藏
页码:3 / 24
页数:22
相关论文
共 50 条
  • [31] FROM GTO TO BALLISTIC LUNAR CAPTUREUSING AN INTERIOR LAGRANGE POINT TRANSFER
    Genova, Anthony L.
    Kaplinger, Brian
    [J]. ASTRODYNAMICS 2017, PTS I-IV, 2018, 162 : 2475 - 2487
  • [32] Gravity field and interior of Rhea from Cassini data analysis
    Iess, Luciano
    Rappaport, Nicole J.
    Tortora, Paolo
    Lunine, Jonathan
    Armstrong, John W.
    Asmar, Sami W.
    SomenZi, Lucia
    Zingoni, Francesco
    [J]. ICARUS, 2007, 190 (02) : 585 - 593
  • [33] Comparing Jupiter interior structure models to Juno gravity measurements and the role of a dilute core
    Wahl, S. M.
    Hubbard, W. B.
    Militzer, B.
    Guillot, T.
    Miguel, Y.
    Movshovitz, N.
    Kaspi, Y.
    Helled, R.
    Reese, D.
    Galanti, E.
    Levin, S.
    Connerney, J. E.
    Bolton, S. J.
    [J]. GEOPHYSICAL RESEARCH LETTERS, 2017, 44 (10) : 4649 - 4659
  • [34] Global identification and spatial distribution of lunar subsurface faults from GRAIL gravity data
    Lu TianQi
    Chen ShengBo
    Zhu Kai
    [J]. CHINESE JOURNAL OF GEOPHYSICS-CHINESE EDITION, 2019, 62 (08): : 2835 - 2844
  • [35] High-resolution lunar gravity fields from the GRAIL Primary and Extended Missions
    Konopliv, Alex S.
    Park, Ryan S.
    Yuan, Dah-Ning
    Asmar, Sami W.
    Watkins, Michael M.
    Williams, James G.
    Fahnestock, Eugene
    Kruizinga, Gerhard
    Paik, Meegyeong
    Strekalov, Dmitry
    Harvey, Nate
    Smith, David E.
    Zuber, Maria T.
    [J]. GEOPHYSICAL RESEARCH LETTERS, 2014, 41 (05) : 1452 - 1458
  • [36] Dating of an alpine ice core from the interior of the Tibetan Plateau
    Shao, Lili
    Tian, Lide
    Wu, Guangjian
    Naftz, David
    Cai, Zhongyin
    Wang, Cheng
    Li, Yao
    Palcsu, Laszlo
    [J]. QUATERNARY INTERNATIONAL, 2020, 544 : 88 - 95
  • [37] Geological investigation of the lunar Apollo basin: From surface composition to interior structure
    Guo, Dijun
    Bao, Yeming
    Liu, Yang
    Wu, Xing
    Xu, Yuchen
    Yang, Yazhou
    Zhang, Feng
    Jolliff, Bradley
    Li, Shuai
    Zhao, Zhenxing
    Huang, Liying
    Liu, Jianzhong
    Zou, Yongliao
    [J]. EARTH AND PLANETARY SCIENCE LETTERS, 2024, 646
  • [38] Recovery of interior eigenvalues from reduced near field data
    Lakshtanov, Evgeny
    Vainberg, Boris
    [J]. APPLICABLE ANALYSIS, 2017, 96 (15) : 2545 - 2552
  • [39] Rhea gravity field and interior modeling from Cassini data analysis
    Tortora, Paolo
    Zannoni, Marco
    Hemingway, Doug
    Nimmo, Francis
    Jacobson, Robert A.
    Iess, Luciano
    Parisi, Marzia
    [J]. ICARUS, 2016, 264 : 264 - 273
  • [40] Assessing Reduced-Dynamic Parametrizations for GRAIL Orbit Determination and the Recovery of Independent Lunar Gravity Field Solutions
    Bertone, S.
    Arnold, D.
    Girardin, V
    Lasser, M.
    Meyer, U.
    Jaggi, A.
    [J]. EARTH AND SPACE SCIENCE, 2021, 8 (06)