Planetary Science

GRAIL

192 tracked publications and 7,535 citations from 2012–2026. Gravity Recovery and Interior Laboratory. Launched 2011. Life-cycle cost: $725M in 2025 dollars. Active Mission Window April 1, 2012 to January 1, 2015: 37 publications, 10 top-10% credit.

Orbiter · h-index 46 · 21 papers with 100+ citations · prime mission ended 2012


Lifetime

Scope Papers published from the first full month after science operations begin through 2 years after the mission ends. Citations are counted through the third calendar year after each paper appears. Methods Papers published from the first full month after science operations begin through 2 years after the prime mission ends. Citations are counted through the third calendar year after each paper appears. Methods Every tracked publication to date, with every citation to date. Methods

Key measures

Active Mission Window · papers April 1, 2012 to January 1, 2015
Tracked publicationsTracked publications: peer-reviewed research papers we found for the mission. The list may not be complete. Methods37
CitationsCitations received by the tracked publications in the selected scope. The two windowed scopes count each paper’s citations only within its citation window. Methods1,100
Mean citations per publicationMean citations: total citations divided by tracked publications in the selected scope. One blockbuster paper can lift it. Methods30
Median citations per publicationMedian citations: the middle paper’s citation count in the selected scope; half the papers have more, half fewer. A single blockbuster sways it less than the mean. Methods14
Uncited publicationsUncited publications: papers with no citations in the selected scope. Methods2 (5.4%)
Top-10% creditTop 10%: among the 10% most-cited papers from this division’s missions, ranked against papers published around the same time. A paper naming several missions is split evenly among the missions in this division that claim it, so counts can be fractional. Methods10 · 0.93% of division
Top-1% creditTop 1%: among the 1% most-cited papers from this division’s missions within the selected window. Not adjusted for publication year. A paper naming several missions is split evenly among the missions in this division that claim it, so counts can be fractional. Methods2 · 1.8% of division
Lifetime indices · every tracked publication to date, in any scope
h-indexh-index: the largest h such that h papers have at least h citations each. It only grows with time, so older missions score higher. Methods46
g-indexg-index: the largest g for which the g most-cited papers together hold at least g² citations. Like the h-index, but it lets the most-cited papers count for more. Methods83
m-index, as of October 4, 2026m-index: a mission’s h-index divided by the years since its first peer-reviewed paper. It falls every 1 January even when nothing else changes, so it belongs to the date shown; it also discounts the long operating life that larger missions paid for. Methods3.1
toritori (total research impact, from ADS): for every paper citing one of the mission’s papers, 1 divided by the citing paper’s reference count times the cited paper’s author count, summed, with self-citations removed. It favors citations from papers with short reference lists and from outside the mission’s own authors. Computed over the tracked citation graph, which can be slightly incomplete. Methods26
riqriq (research impact quotient): 1,000 times the square root of tori, divided by the years since the mission’s first paper. A rate, not a total, so it does not keep growing with age the way the h-index and tori do. Methods338

Tracked publications

  1. The Crust of the Moon as Seen by GRAIL

    Wieczorek, Mark A., 2013, Sci

    872 citations

  2. Gravity Field of the Moon from the Gravity Recovery and Interior Laboratory (GRAIL) Mission

    Zuber, Maria T., 2013, Sci

    443 citations

  3. Lunar impact basins revealed by Gravity Recovery and Interior Laboratory measurements

    Neumann, G. A., 2015, SciA

    232 citations

  4. Lunar interior properties from the GRAIL mission

    Williams, James G., 2014, JGRE

    207 citations

  5. Ancient Igneous Intrusions and Early Expansion of the Moon Revealed by GRAIL Gravity Gradiometry

    Andrews-Hanna, Jeffrey C., 2013, Sci

    178 citations

  6. The Origin of Lunar Mascon Basins

    Melosh, H. J., 2013, Sci

    178 citations

  7. The JPL lunar gravity field to spherical harmonic degree 660 from the GRAIL Primary Mission

    Konopliv, Alex S., 2013, JGRE

    174 citations

  8. GRGM900C: A degree 900 lunar gravity model from GRAIL primary and extended mission data

    Lemoine, Frank G., 2014, GeoRL

    172 citations

  9. Generation, ascent and eruption of magma on the Moon: New insights into source depths, magma supply, intrusions and effusive/explosive eruptions (Part 1: Theory)

    Wilson, Lionel, 2017, Icar

    172 citations

  10. GRAIL gravity constraints on the vertical and lateral density structure of the lunar crust

    Besserer, Jonathan, 2014, GeoRL

    160 citations

  11. Crystallization of the lunar magma ocean and the primordial mantle-crust differentiation of the Moon

    Charlier, Bernard, 2018, GeCoA

    155 citations

  12. Lunar central peak mineralogy and iron content using the Kaguya Multiband Imager: Reassessment of the compositional structure of the lunar crust

    Lemelin, Myriam, 2015, JGRE

    137 citations

  13. High‒degree gravity models from GRAIL primary mission data

    Lemoine, Frank G., 2013, JGRE

    136 citations

  14. Lunar floor-fractured craters: Classification, distribution, origin and implications for magmatism and shallow crustal structure

    Jozwiak, Lauren M., 2012, JGRE

    126 citations

  15. Asymmetric Distribution of Lunar Impact Basins Caused by Variations in Target Properties

    Miljković, Katarina, 2013, Sci

    124 citations

  16. High-resolution lunar gravity fields from the GRAIL Primary and Extended Missions

    Konopliv, Alex S., 2014, GeoRL

    124 citations

  17. A 3-D numerical study of the thermal evolution of the Moon after cumulate mantle overturn: The importance of rheology and core solidification

    Zhang, Nan, 2013, JGRE

    120 citations

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

    Zuber, Maria T., 2013, SSRv

    119 citations

  19. Fractional crystallization of the lunar magma ocean: Updating the dominant paradigm

    Rapp, J. F., 2018, M&PS

    117 citations

  20. Structure and evolution of the lunar Procellarum region as revealed by GRAIL gravity data

    Andrews-Hanna, Jeffrey C., 2014, Natur

    110 citations

How we found these papers

We searched NASA’s Astrophysics Data System (ADS) for peer-reviewed articles naming GRAIL in the title, abstract or keywords; standard filters drop articles that are not peer-reviewed and magazine pieces. SciX is ADS’s current interface.

((=abs:"Gravity Recovery and Interior Laboratory" OR (abs:GRAIL AND (abs:Moon OR abs:lunar OR abs:gravity)) )) AND property:refereed AND doctype:article AND pubdate:[2012-04 TO 2040-01] AND NOT bibstem:("A&R" OR "AIASJ" OR "AeAm" OR "AirSp" OR "AsNow" OR "AsUAI" OR "AvWST" OR "C&E" OR "C&T" OR "CAPJ" OR "E&S" OR "ENews" OR "IrAJ" OR "JCos" OR "JRASC" OR "LAstr" OR "MNSSA" OR "Met" OR "NewSc" OR "Orion" OR "PhT" OR "PhTea" OR "PhuZ" OR "PhyOJ" OR "PhyW" OR "PlR" OR "SciAm" OR "SpFl" OR "ZemVs")

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