A. Zocca, M. Fateri, D. Al-Sabbagh, J. Günster | 2020 | Ceramics International
DOI 10.1016/j.ceramint.2020.02.212Review state
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The paper investigates the sintering behavior and microstructure evolution of a novel ceramic composite material. The study focuses on the effects of sintering temperature and time on the densification, grain growth, and mechanical properties of the composite. The results show that optimal sintering conditions significantly enhance the material's performance, making it suitable for high-temperature applications. The paper investigates the thermal and structural behavior of the JSC-2A lunar simulant under various heating conditions. It includes detailed analysis of the material's response to temperature changes, its phase transitions, and the structural changes observed during heating. The study also highlights the importance of thermal analysis in understanding the behavior of lunar materials for future space missions. The provided text appears to be a series of URLs and file names related to images or documents, likely associated with an academic or technical paper. The URLs follow a pattern that includes a DOI-like identifier (`S027288422030537X`) and file types such as `.jpg`, `.sml`, and `.lrg`, suggesting they are thumbnails, low-resolution, and high-resolution versions of ima
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DTA
thermal_analysis
XRD
crystallographic_analysis
HSM
sintering_analysis
X-ray_tomography
microstructural_analysis
DTA analysis of JSC-2A
thermal
Sintering of lunar regolith simulant
Thermal
Thermal characterization of lunar regolith simulants
Thermal
Structural assessment of sintered lunar regolith simulant
Structural
Content Type
Academic Paper or Technical Document
thermal_behavior
shrinkage between 1000 C and 1300 C, bloating at higher temperatures
composition
calcium-rich plagioclase as the major crystalline phase
sintering_temperature
start at >1060 C, increased to approximately 1150 C
heating_rate_effect
lower heating rate (10 K/min) led to stronger bloating compared to higher heating rate (50 K/min)
particle_size_effect
coarser particles (<100 m) resulted in higher sintering temperature (approximately 25 C) compared to finer particles (<20 m)
thermal properties
measured
Thermal conductivity
Varies depending on sintering conditions and porosity