Planetary Science

LADEE

74 tracked publications and 1,734 citations from 2014–2026. Lunar Atmosphere and Dust Environment Explorer. Launched 2013. Life-cycle cost: $378M in 2025 dollars. Active Mission Window December 1, 2013 to May 1, 2016: 24 publications, 1 top-10% credit.

Orbiter · h-index 25 · 3 papers with 100+ citations · prime mission ended 2014


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 December 1, 2013 to May 1, 2016
Tracked publicationsTracked publications: peer-reviewed research papers we found for the mission. The list may not be complete. Methods24
CitationsCitations received by the tracked publications in the selected scope. The two windowed scopes count each paper’s citations only within its citation window. Methods240
Mean citations per publicationMean citations: total citations divided by tracked publications in the selected scope. One blockbuster paper can lift it. Methods10
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. Methods7.5
Uncited publicationsUncited publications: papers with no citations in the selected scope. Methods4 (17%)
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. Methods1 · 0.09% 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. Methods0 · 0% 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. Methods25
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. Methods40
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. Methods1.9
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. Methods11
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. Methods254

Tracked publications

  1. Lunar dust and dusty plasmas: Recent developments, advances, and unsolved problems

    Popel, S. I., 2018, P&SS

    116 citations

  2. Lunar soil hydration constrained by exospheric water liberated by meteoroid impacts

    Benna, M., 2019, NatGe

    115 citations

  3. The Lunar Dust Experiment (LDEX) Onboard the Lunar Atmosphere and Dust Environment Explorer (LADEE) Mission

    Horányi, M., 2014, SSRv

    101 citations

  4. Variability of helium, neon, and argon in the lunar exosphere as observed by the LADEE NMS instrument

    Benna, M., 2015, GeoRL

    87 citations

  5. Meteoroids at the Moon: Orbital Properties, Surface Vaporization, and Impact Ejecta Production

    Pokorný, Petr, 2019, JGRE

    86 citations

  6. How surface composition and meteoroid impacts mediate sodium and potassium in the lunar exosphere

    Colaprete, A., 2016, Sci

    67 citations

  7. The Lunar Atmosphere and Dust Environment Explorer Mission

    Elphic, R. C., 2014, SSRv

    65 citations

  8. Commercial lunar propellant architecture: A collaborative study of lunar propellant production

    Kornuta, David, 2019, Reach

    61 citations

  9. Lunar meteoritic gardening rate derived from in situ LADEE/LDEX measurements

    Szalay, Jamey R., 2016, GeoRL

    58 citations

  10. Upper limits for a lunar dust exosphere from far-ultraviolet spectroscopy by LRO/LAMP

    Feldman, Paul D., 2014, Icar

    53 citations

  11. The search for electrostatically lofted grains above the Moon with the Lunar Dust Experiment

    Szalay, Jamey R., 2015, GeoRL

    52 citations

  12. The Neutral Mass Spectrometer on the Lunar Atmosphere and Dust Environment Explorer Mission

    Mahaffy, Paul R., 2014, SSRv

    48 citations

  13. Detections of lunar exospheric ions by the LADEE neutral mass spectrometer

    Halekas, J. S., 2015, GeoRL

    45 citations

  14. Annual variation and synodic modulation of the sporadic meteoroid flux to the Moon

    Szalay, Jamey R., 2015, GeoRL

    45 citations

  15. The Lunar Laser Communication Demonstration: NASA's First Step Toward Very High Data Rate Support of Science and Exploration Missions

    Boroson, Don M., 2014, SSRv

    42 citations

  16. Meteoroid Impacts as a Source of Bennu's Particle Ejection Events

    Bottke, W. F., 2020, JGRE

    40 citations

  17. Methane in the lunar exosphere: Implications for solar wind carbon escape

    Hodges, R. Richard, 2016, GeoRL

    37 citations

  18. Impacts of fast meteoroids and a plasma-dust cloud over the lunar surface

    Popel, S. I., 2017, JETPL

    33 citations

  19. Lunar exospheric argon modeling

    Grava, Cesare, 2015, Icar

    31 citations

  20. Meteoritic influence on sodium and potassium abundance in the lunar exosphere measured by LADEE

    Szalay, Jamey R., 2016, GeoRL

    31 citations

How we found these papers

We searched NASA’s Astrophysics Data System (ADS) for peer-reviewed articles naming LADEE 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:"Lunar Atmosphere and Dust Environment Explorer" OR ((abs:LADEE OR abs:LDEX OR =abs:"Lunar Dust Experiment") AND abs:(Moon OR lunar OR dust)))) AND property:refereed AND doctype:article AND pubdate:[2013-12 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")

Open in SciX

Removed after review (4)

  1. 2011SSRv..165....3A Angelopoulos 2011, "The ARTEMIS Mission" (doi 10.1007/s11214-010-9687-2). An ARTEMIS mission overview, not an LADEE paper: it reaches the LADEE corpus through the abs:"LADEE" arm paired with the lunar/Moon co-term, but the only LRO mention is the incidental "ARTEMIS is synergistic with concurrent NASA missions LRO and LADEE", which names LADEE as a contemporaneous mission and draws no data, product or result from it. Decision 👨
  2. To the Moon with LADEE Journal editorial introducing LADEE; not a research paper. Decision 🤖
  3. Seven days: 18-24 April 2014 Weekly news digest noting LADEE's impact; not a research paper. Decision 🤖
  4. Foreword. The Lunar Atmosphere and Dust Environment Explorer Mission Foreword to a journal special issue; not a research paper. Decision 🤖