G. Xue, G. Qiao | 2025 | Acta Astronautica
DOI 10.1016/j.actaastro.2025.05.011Review state
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This paper explores cold sintering as an energy-efficient method for lunar regolith-based geopolymer fabrication. It details parameter optimization for geopolymer products, including compressive strength, porosity, and gel content improvements under varying temperature and pressure conditions. The study highlights the potential of cold sintering for in-situ lunar construction. The provided text appears to be a series of URLs or identifiers related to academic articles or publications, likely from the Elsevier database. These identifiers are in the format of 'https://api.elsevier.com/content/object/eid/1-s2.0-S0094576525002930-si...'. The text also includes some numerical and alphanumeric codes, possibly representing publication IDs or other metadata. There is no clear text content or meaningful information beyond these identifiers, suggesting the text may be a list of references or a technical log related to academic publishing systems. The paper discusses the application of cold sintering for the fabrication of ceramic components, focusing on the effects of temperature, pressure, and sintering time on the microstructure and mechanical properties of the final product. The study hig
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Data Processing
Academic Paper Content Mapping
Research
Orthogonal Experiment
Experimental Design
Thermal Analysis
Thermogravimetric Analysis
XRD Analysis
X-ray Diffraction
Elemental Mapping
Scanning Electron Microscopy
Micromorphology Analysis
Scanning Electron Microscopy
Orthogonal experiments (L27 (313))
Mechanical testing | In-situ lunar construction, prefabricated construction, emergency repair scenarios
Technical Log
The text may represent a technical log or metadata record related to an academic publishing system.
File Type
SVG (Scalable Vector Graphics)
Thermal Stability
High
Crystalline Structure
XRD patterns
Elemental Composition
Elemental mapping
Micromorphology
Micromorphology and composition characteristics
Compressive strength
42.56 MPa MPa
Porosity
28.62 % %