Characterizing The Mechanical Properties of JSC-1A Martian Simulant
School Name
Governor's School for Science & Mathematics
Grade Level
12th Grade
Presentation Topic
Engineering
Presentation Type
Mentored
Abstract
The lunar landing was an enormous step in humanity’s exploration of space. At last we’re nearly ready to take the next step—a human landing on a nearby planet. Scientists at NASA (National Aeronautics and Space Administration) predict that sometime in the 2030’s, humans will land on Mars. In order to reach this goal NASA has created a road map of technological goals that must be accomplished prior to launch. This research project complements a recent SC NASA Space Consortium funded project to study the feasibility of using simulated in-situ Martian soils to create functional building blocks. The objectives of this project are to characterize the mechanical properties of JSC-1A Martian soil simulant, in particular, the grain size distribution and shear strength of the simulant, through a series of soil mechanics experiments. Secondly, to compile, analyze and prepare experimental data for calibrating numerical models. In order to observe the grain size distribution, sieve analyses and hydrometer analyses were performed on the Martian simulant. To test the shear strength and calculate the friction angle of the simulant, shear tests were run. The results from these tests can be used to help determine whether the Martian regolith can be used to construct building blocks on Mars.
Recommended Citation
Wilde, Ian, "Characterizing The Mechanical Properties of JSC-1A Martian Simulant" (2017). South Carolina Junior Academy of Science. 112.
https://scholarexchange.furman.edu/scjas/2017/all/112
Start Date
3-25-2017 11:59 PM
Presentation Format
Written Only
Group Project
No
Characterizing The Mechanical Properties of JSC-1A Martian Simulant
The lunar landing was an enormous step in humanity’s exploration of space. At last we’re nearly ready to take the next step—a human landing on a nearby planet. Scientists at NASA (National Aeronautics and Space Administration) predict that sometime in the 2030’s, humans will land on Mars. In order to reach this goal NASA has created a road map of technological goals that must be accomplished prior to launch. This research project complements a recent SC NASA Space Consortium funded project to study the feasibility of using simulated in-situ Martian soils to create functional building blocks. The objectives of this project are to characterize the mechanical properties of JSC-1A Martian soil simulant, in particular, the grain size distribution and shear strength of the simulant, through a series of soil mechanics experiments. Secondly, to compile, analyze and prepare experimental data for calibrating numerical models. In order to observe the grain size distribution, sieve analyses and hydrometer analyses were performed on the Martian simulant. To test the shear strength and calculate the friction angle of the simulant, shear tests were run. The results from these tests can be used to help determine whether the Martian regolith can be used to construct building blocks on Mars.
Mentor
Mentor: Qiushi Chen, Clemson University