W. H. H. V, T. M. Egnaczyk, N. J. Wagner | 2026 | Advances in Space Research
DOI 10.1016/j.asr.2026.02.081Review state
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This paper investigates the compressive strength development of BP-1 lunar regolith simulant geopolymers under various curing protocols, including microwave irradiation. It reports compressive strengths, activation energy, and energy input thresholds for optimal strength. The study highlights unifying trends in geopolymer strength development for both traditional and rapid curing methods, with implications for lunar construction. The provided text appears to be a collection of URLs related to an academic paper or document, likely from a journal or conference. The URLs point to various image and supplementary file formats (e.g.,.jpg,.svg) associated with the paper, suggesting they are part of the publication's supplementary materials or figures. The text does not contain any meaningful content or data that can be summarized directly. It is likely a technical or system-generated output, possibly from a search or indexing process. This paper presents a study on the development and characterization of BP-1 lunar regolith simulant-based materials for use in space applications. The research focuses on the synthesis and evaluation of these materials using various analytical techniques t
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compressive strength testing
mechanical testing | Construction and infrastructure
Document Identifier Verification
Verification
Autocatalytic model fit
mechanical
Void fraction and connected pores
mechanical
NMR gaussian peak deconvolution
mechanical
Compressive strength vs. total microwave energy
mechanical
Arrhenius fit to time scales
mechanical
Comparison of compressive strength and plateau strength
mechanical
File Type
Image File
Document Identifier
S0273117726002863
Compressive strength
5.13 MPa
Q4 (1-2Al)%
38%
Q4 (3-4Al)%
49%
Q4 (2Al) / Q4 (4Al)
0.607
Ea
12.2 kJ/mol
A
13.5 1/days