J. Atkinson, M. Prasad, A. Abbud-Madrid, C. B. Dreyer | 2020 | Icarus
DOI 10.1016/j.icarus.2020.113812Review state
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This paper investigates the penetration and relaxation behavior of JSC-1A lunar regolith simulant under cryogenic conditions. The study focuses on how ice content affects penetration resistance and force relaxation, with measurements conducted at specific temperatures and pressures. The results suggest ice content significantly influences mechanical properties, with critical ice content identified between 1% and 3%. The paper investigates the mechanical behavior of JSC-1 lunar regolith simulant under cryogenic conditions, focusing on its response to compression and shear. The study employs a combination of experimental testing and numerical modeling to understand the material's properties and behavior at low temperatures. Key findings include the significant impact of temperature on the mechanical strength and deformation characteristics of the simulant, as well as the importance of microstructural changes in determining its performance under extreme conditions. This paper investigates the penetration and relaxation behavior of JSC-1A lunar regolith simulant under cryogenic conditions. The study examines how ice content affects mechanical properties, including viscoelasticity, usin
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Penetration and Relaxation Behavior
mechanical
Ice Content Analysis
chemical
Critical Ice Content Determination
mechanical
Viscoelastic Behavior Analysis
mechanical
Thermal testing
thermal
Penetration and relaxation measurements
mechanical testing
Penetration and relaxation behavior of JSC-1A under cryogenic conditions
mechanical
Water ice saturation testing of JSC-1A
physical
Penetration Resistance
sensitive to ice content
Force Relaxation
sensitive to ice content
Critical Ice Content
1% to 3%
Viscoelastic Behavior
decreased at high ice content
Ice content (%)
0%, 0.2%, 100%
Temperature (K)
110 K, 125 K
Viscoelasticity
decreases with increased ice content
Model coefficients
nonlinear increase with ice content