Geotechnical Properties of Uncompacted DNA-1A Lunar Simulant

AbstractUnderstanding the mechanical behavior of lunar regolith is of great importance to address the building of structures on the Moon, as well as for predicting the response of some equipment or facilities interacting with the lunar soil (i.e., rovers). Because the number of lunar regolith sample...

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Veröffentlicht in:Journal of aerospace engineering 2019-03, Vol.32 (2)
Hauptverfasser: Marzulli, Valentina, Cafaro, Francesco
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description AbstractUnderstanding the mechanical behavior of lunar regolith is of great importance to address the building of structures on the Moon, as well as for predicting the response of some equipment or facilities interacting with the lunar soil (i.e., rovers). Because the number of lunar regolith samples on Earth is quite low due to the difficulties of bringing it back during space missions, in the last decades, researchers started to develop similar materials, usually named lunar regolith simulants. This paper reports the geotechnical characterization of the De NoArtri (DNA) lunar simulant carried out in the laboratory. Compositional analyses and mechanical tests have been carried out to characterize this simulant; particle-size distribution analysis, chemical analysis, and scanning electron microscope (SEM) analysis have been performed to identify the DNA-1A from a compositional point of view, as well as triaxial compression, direct shear, and oedometer tests for depicting its mechanical behavior, with some comparison with original lunar soil and other simulants.
doi_str_mv 10.1061/(ASCE)AS.1943-5525.0000983
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Because the number of lunar regolith samples on Earth is quite low due to the difficulties of bringing it back during space missions, in the last decades, researchers started to develop similar materials, usually named lunar regolith simulants. This paper reports the geotechnical characterization of the De NoArtri (DNA) lunar simulant carried out in the laboratory. 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source American Society of Civil Engineers:NESLI2:Journals:2014
subjects Chemical analysis
Compression tests
Deoxyribonucleic acid
DNA
Geotechnical engineering
Lunar soil
Lunar surface
Mechanical properties
Mechanical tests
Moon
Organic chemistry
Particle size distribution
Regolith
Soil mechanics
Space missions
Technical Papers
title Geotechnical Properties of Uncompacted DNA-1A Lunar Simulant
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