SMART-1 lunar highlights

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SMART-1 lunar highlights Bernard H. Foing & SMART-1 Project & Operations team, SMART-1 Science Technology Working Team, SMART-1 Impact Campaign Team http://sci.esa.int/smart-1/, www.esa.int

Europe to the Moon: spacecraft, launch, operations (ESA+ industry) Instruments PIs + TIs from 5 countries Co-Is from 13 ESA + 6 non European countries

Solar Electric Primary Propulsion: 7 g thrust, 60 liters Xenon to the Moon

SMART-1: With Sun power to the Moon on 60 liters of fuel

Solar Electric Propulsion to the Moon Launched 27 Sept 2003 as Auxiliary passenger on Ariane 5 into Geostationary Transfer Orbit Spiral out cruise (13.5 month): lunar capture 15 November 2004, spiral down arrival 15 March 05 science(450-2900 km): commissioned spacecraft/instruments at Moon, nominal science mission March-July 05 reboosting 2 aug-15 Sept 05 to increase orbit lifetime for extension phase until Aug 2006

AMIE /SMART-1 End August 2006 X Earth set & rise from the Moon AMIE /SMART-1 May 21 st, 2004 Earth view from ~70 000 km

First European Far Side Image of The Moon by AMIE/SMART-1 North Pole 12 Nov. 2004

Moon Phase & Mission Extension MISSION EXTENSION Apolune Perilune Moon Radius

Sun light SMART-1 Reflecte d Sun light KA-band antenna Triple junction solar cells Multicolor microcamera Laser Link Communication On-board computer X-Ray Spectrometer OBAN Autonomy Lithium ion batteries Platform Technologies Infrared Spectrometer Miniaturisation

SMART-1 Science and Exploration Themes HOW DO EARTH-LIKE PLANETS WORK? GEOPHYSICS: volcanism, tectonics, craters, erosion, space weather, ices HOW DO ROCKY PLANETS FORM AND EVOLVE? GEOCHEMISTRY: chemical composition, Earth-Moon origin, Moon evolution, accretion, collisions, giant bombardment PREPARING FUTURE LUNAR/PLANETARY EXPLORATION LUNAR RESOURCES SURVEY (minerals, volatiles, illumination) HIGH RESOLUTION MAPS: for future LANDING SITES and OUTPOSTS SUPPORT TO FUTURE MISSIONS AND EXPLORATION PUBLIC OUTREACH, INSPIRATION AND EDUCATION

What shapes rocky planets? Why the Moon? A laboratory for Geophysics erosion, volatiles cratering Bombardment chronology Tectonic wrinkles Prospector H map volcanism

Calibration & Ground Truth SMART-1 view of Apollo 11 site Distance 1764 km FOV 80 x 120 km Calibrations, see also Despan et al : geometrical analysis Kaydash et al: photogrammetry

AMIE SMART-1 High Res Colour AMIE colour image Orbit 1438 Reiner gamma Magnetic shield Clementine (Cerroni et al 2007)

Serenitatis Crater counts and lunar chronology

SMART-1 view of Hadley Rille (giant lava tube) near Apollo 15 landing site 100 km field

SMART-1 AMIE detailed targets: Procellarum and youngest basaltic flows

Coupling between impacts and volcanism - Humorum: Multiringed impact basin - Procellarum: Irregular basin - Tectonics of mascon loading Peters et al 2007

Meton: debris on the edge of Imbrium giant basin

Minerals : the infrared Moon The SIR spectrometer 0.9-2.4 microns: - to chart the Moon s minerals - to find the signature of volcanism and impacts -

SIR infrared spectra across craters: window to the subsurface EPSC2 talks Vilenius et al Wiese et al Mineral changes with SIR: from Highland to Mare Mineral fingerprints

Formation and evolution of rocky planets Origin of the Moon: geochemistry Evolution of Earth/Moon system Impact craters and basins Bombardment history in the inner solar system SouthPoleAitkenBasin Edge debris from giant basin SMART-1 Infrared mineral spectroscopy

Mapping chemical resources: 1 The Sun shines on the Moon (in X rays) How D-CIXS works 2 The Moon fluoresces 3 Each X-ray energy indicates unambiguously the abundance of a particular element Sun Shines in X-rays 4 D-CIXS detects these X-rays 5 Solar Monitor for Solar Input required for absolute abundances

SMART-1 & Luna 24 samples in Mare Crisium : Why is Ca constant while Mg varies? Facet 3 Facet 1 Mare Crisium

X-ray signatures of Chemical Elements First ever remote sensing measurements of Ca at the Moon Ca Mg Fe Al Si 1 kev 10 kev Grande et al 2007

Detailed task of fitting Lunar composition to the data. This is close to the Apollo 12 landing site

Unanswered questions about the Moon How did the Earth-Moon system form? Giant Impact? Origin of impactor? Volatiles? How has the Moon evolved since? Magma ocean? Necessary data Composition (Mg, Al ) Age and isotopic composition

The Moon impact formation, 4.5 Gyr

PREPARING FUTURE LUNAR/PLANETARY EXPLORATION TECHNOLOGY LESSONS (ESTEC workshop January 2007) LUNAR RESOURCES SURVEY - minerals, volatiles, illumination HIGH RESOLUTION MAPS: for future LANDING SITES and OUTPOSTS - mid resolution map North polar region - high res map of south polar region SUPPORT TO FUTURE MISSIONS AND EXPLORATION - support Chang E 1 ground segment validation - support Chandrayaan-1 - collaborations Selene, LRO/LCROSS - from SMART-1 impact campaign to future impacts - use of SMART-1 data and experience - support lunar landers and sample return missions design

SMART-1 High res views of Targets in South Pole Aitken Basin For future sample returns Hopmann

North pole peaks of light Summer average illumination Clementine Winter image SMART-1

SMART-1 maps its own landing site Lake of Excellence 46.2 W 34.4 South Highest resolution Reference for future detection of crater and Ejectas x Impact time: 3 sept 5h42:21.7 UT (within 1 s of prediction)

SMART-1 last orbit

Our last Moon travelling shot

SMART-1 a bridge to Future missions Data analysis & Interpretation Technology Lessons Learned Science & Exploration Results Preparation for human lunar missions SMART-1 & next missions (collaborations) 2007 Chinese Chang e 1 (ground station) 2007 JAXA Selene (science exchange) 2008 ISRO Chandrayaan-1 (SIR2, C1XS, SARA) 2008 LRO & LCROSS (planning, impact, outreach) 2011- Orbiters (ESMO, ASI, Moon Lite, BW ) 2011- Landers, Rovers & Robotic village ( US LPRP, Chang e 2, Selene2, India, Lunaglob, ASI, D, UK, ESA) 2015- Sample return: Chang e 3, Selene3, ESA NEXT, 2019- Human missions

ILEWG9/ILC2007 Intl Lunar Conference 22-26 October 2007, Sorrento, Naples Bay, Italy, Co-hosted by ASI & ESA Co-chairs: S. Di Pippo (ASI), Wu Ji (China), M. Wargo (NASA), B.H.Foing (ILEWG/ESA) 1. Inauguration & Keynote speeches 2. Results from SMART-1, and latest reports from Chang'E 1 and Selene 3. Agencies activities and plans 4. Keynote speeches: Science, Technology, Human exploration 5. Status of Future Missions: Chandrayaan-1, LRO/ LCROSS, Future Landers/Orbiters 6. Science and Exploration of the Moon: Results, Open Questions and New Approaches 7. Technologies, Infrastructures, Resources for Future Robotic and Human exploration 8. Societal, legal, policy, economics 9 Next steps for Robotic Landers, Rovers and Outposts 10 International Prospects for utilization and human exploration. 11 Reports and recommendations from working groups 12 ICEUM9 recommendations and declaration 13 Young Lunar Explorers session Outreach/education for public and Youth 14 Posters & interactive sessions Geological field trip