R. Shao, C. Wu, J. Li | 2025 | Journal of Materials Research and Technology
DOI 10.1016/j.jmrt.2025.03.047Review state
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This paper explores the use of lunar simulant in fibre-reinforced high-performance concrete (LHPC) for lunar construction. It evaluates mechanical properties, mass-strength efficiency, and cost-effectiveness of LHPC with various fibre types. The study highlights the benefits of hybrid steel-polypropylene fibres in enhancing structural integrity and reducing transportation costs. The paper presents a study on the development of fiber-reinforced concrete using lunar regolith simulant as a base material. The research is supported by the Australian Research Council (ARC) under grant DP210101100. The study involves experimental work conducted at UTS Tech Lab with assistance from staff and PhD students. The paper is published in the journal 'Materials Research Bulletin' (ISSN 0025-5416) under the title 'Development of Fiber-Reinforced Concrete Using Lunar Regolith Simulant as a Base Material'. The provided text appears to be a list of image URLs and metadata, likely from a scientific or technical paper hosted on a platform like ScienceDirect or similar. Each entry includes a URL, file type (e.g., JPEG, GIF), and dimensions. The URLs are structured with a common base (`https://s3-eu-west-
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mechanical properties evaluation
mechanical testing
material performance testing
mechanical testing
microstructural analysis
material analysis
Fibre Reinforcement Study
Mechanical Properties
Mass-Strength Efficiency Analysis
Logistical Efficiency
Geopolymer Production Study
Material Synthesis
flexural strength measurement
mechanical testing
Uniaxial compression test
Mechanical | Mechanical strength evaluation
mechanical properties
evaluated through bending tests and structural integrity assessment
material performance
tested through material performance testing and microstructural analysis
microstructural analysis
conducted through microstructural analysis and material performance testing
Platform
ScienceDirect or similar academic platform
Compressive strength
125.2 MPa
Flexural Strength
11.5 MPa
Thermal Stability
High
flexural strength
3.1 MPa