H. Sargeant, S. Barber, M. Anand, F. Abernethy, S. Sheridan, I. Wright, A. Morse | 2021 | Planetary and Space Science
DOI 10.1016/j.pss.2021.105287Review state
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This paper investigates hydrogen reduction of lunar samples for water production on the Moon. It evaluates a lunar simulant (NU-LHT-2M), a lunar meteorite (NWA 12592), and two Apollo soils (10084 and 60500). The study demonstrates the feasibility of a static system for reducing lunar regolith and producing measurable water yields. This paper investigates the hydrogen reduction of lunar regolith simulants and meteorite samples to produce metallic iron. The study focuses on the reaction mechanisms, product characterization, and the potential for in-situ resource utilization on the Moon. The research highlights the importance of understanding the thermodynamics and kinetics of the reduction process for future lunar exploration and resource extraction. The provided text is a mix of metadata and content from a scientific paper, likely related to in-situ resource utilization (ISRU) and planetary science. The paper discusses the use of a system called ISRU-BDM (In-Situ Resource Utilization - Bounded Decomposition Method) for hydrogen reduction of meteorite samples to extract water. The study involves analyzing different meteorite samples (NU-LHT-2M, NWA 12592, 10084, 60500) and comparing
These are the records this paper contributes to the simulant, returned sample, method, and property browsers.
lunar highland simulant
Hydrogen Reduction
Thermodynamic and Kinetic Study
Hydrogen reduction
Hydrogen reduction
BSE imaging
Imaging
Water extraction
Water extraction
Hydrogen reduction of lunar samples
O2 extraction
Hydrogen reduction experiments
reduction reaction
hydrogen reduction
ISRU-BDM
Estimating yields from hydrogen reduction
Analysis
Sample ID
NU-LHT-2M
Sample ID
NWA 12592
Sample ID
10084
Sample ID
60500
System
ISRU-BDM
Treatment
EATG
Method
Hydrogen reduction at 1000°C for 4 hours with 0.3 mmol of hydrogen
Imaging technique
BSE imaging