2017
DOI: 10.1089/ast.2016.1566
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The ADRON-RM Instrument Onboard the ExoMars Rover

Abstract: This overview presents the physical principles, design, measurement capabilities, and summary of planned operations of the autonomous detector of radiation of neutrons onboard rover at Mars (ADRON-RM) on the surface of Mars. ADRON-RM is a Russian project selected for the joint European Space Agency-Roscosmos ExoMars 2020 landing mission. A compact passive neutron spectrometer, ADRON-RM, was designed to study the abundance and distribution of water and neutron absorption elements (such as Cl, Fe, and others) in… Show more

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Cited by 19 publications
(8 citation statements)
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“…ADRON (active detector for gamma rays and neutrons) (Mitrofanov et al , 2017 [this issue]) will count the number of thermal and epithermal neutrons scattered in the martian subsurface to determine hydrogen content (present as grain adsorbed water, water ice, or in hydrated minerals) in the top 1 m. This information will complement the subsurface characterization performed by WISDOM.…”
Section: The Exomars Rover and Its Pasteur Payloadmentioning
confidence: 99%
“…ADRON (active detector for gamma rays and neutrons) (Mitrofanov et al , 2017 [this issue]) will count the number of thermal and epithermal neutrons scattered in the martian subsurface to determine hydrogen content (present as grain adsorbed water, water ice, or in hydrated minerals) in the top 1 m. This information will complement the subsurface characterization performed by WISDOM.…”
Section: The Exomars Rover and Its Pasteur Payloadmentioning
confidence: 99%
“…The capable instrument complement includes 'context' instruments (PanCamour scientific camera system 3see below), an infrared spectrometer ISEM 4 for mineralogy, a ground penetrating radar WISDOM 5 for subsurface rock outcrop and water ice detection, a neutron detector ADRON 6 for sub-surface hydrogen, inferring water, and a close-up imager CLUPI 7 . In the tip of the drill is the miniaturised visible and infrared Ma_MISS 8 instrument, for subsurface geological context.…”
Section: The Rosalind Franklin Rovermentioning
confidence: 99%
“…From these data, an outcrop target will be chosen for the rover to approach to ∼3 m on the second sol. ADRON (Mitrofanov et al, 2017 , in this issue) and WISDOM (Ciarletti et al, 2017 , in this issue) surveys are conducted during the approach phase. A WAC image using either all 12 geology filters or selected groups (as discussed in Section 3.1 ) is taken of the outcrop along with a mosaic of eight HRC color images (and again eight co-registered ISEM spectra).…”
Section: Measurement Scenariomentioning
confidence: 99%
“…In addition, the Close-UP Imager (CLUPI; Josset et al, 2017 , in this issue) will provide high-resolution images of potential drilling sites and other interesting samples. Subsurface context will be provided by a ground-penetrating radar (Water Ice and Subsurface Deposit Observation On Mars, WISDOM; Ciarletti et al, 2017 , in this issue) and a neutron detector (Autonomous Detector of Radiation Of Neutrons, ADRON; Mitrofanov et al 2017 , in this issue), as well as a visible-IR spectrometer (Mars Multispectral Imager for Subsurface Studies, Ma_MISS; De Sanctis et al, 2017 , in this issue) in the drill tip to provide in situ mineralogy for the subsurface samples before they are brought to the surface. Sample analysis will be by the Analytical Laboratory Drawer (ALD) instruments, MicrOmega (Bibring et al, 2017 , in this issue), RLS (Raman spectrometer; Rull et al, 2017 , in this issue), and Mars Organic Molecule Analyser (MOMA; Goesmann et al, 2017 , in this issue).…”
Section: Introductionmentioning
confidence: 99%