R. Shao, C. Wu, J. Li | 2024 | Construction and Building Materials
DOI 10.1016/j.conbuildmat.2024.138707Review state
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The paper presents a study on the development of a geopolymer-based material using lunar regolith simulant to create a sustainable construction material for lunar habitats. The study involves the preparation of the simulant, the mixing with a geopolymer binder, and the evaluation of the resulting material's mechanical properties. The results indicate that the material has good compressive strength and can be used for structural applications in space environments. The study presents an innovative approach to developing geopolymer-based materials for use in space exploration, focusing on the use of lunar regolith as a primary raw material. The research explores the feasibility of creating durable and lightweight construction materials that can be used in extraterrestrial environments, addressing challenges such as radiation, extreme temperatures, and limited resources. The study also highlights the importance of sustainable and cost-effective methods for material production, emphasizing the potential of geopolymer technology to support long-term human presence on the Moon and Mars. s://s3-eu-west-1.amazonaws.com/prod-ucs-content-store-eu-west/content/pii:S0950061824038492/gr13/DOWNSA
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Slump flowability test
Consistency test
Compression test
Strength test
flowability test
flowability
unit weight test
unit weight
compressive strength test
compressive strength
microstructure analysis
microstructure
Uniaxial compression test
compression
Digital image correlation (DIC) test
microstructural analysis
Workability
Measured via slump flowability test
Compressive strength
Measured via compression test
flowability
better for LMS-1
unit weight
higher for LMS-1
compressive strength
106.7 MPa for LHS-1, 98.7 MPa for LMS-1
microstructure
LHS-1 has denser amorphous gels and fewer microcracks
compressive strength
31 MPa
compressive strength
18.4 MPa