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This review explores the integration of ceramic waste into heat‐resistant concrete as a sustainable solution aligned with the UN Sustainable Development Goals (SDGs). Ceramic waste, a major industrial by‐product, shows promise as coarse aggregate in concrete, supporting waste reduction and energy efficiency in construction. The study examines mechanical properties, durability, and high‐temperature performance through a literature review, bibliometric analysis using VOSviewer, and interviews with ceramic manufacturers. Findings reveal gaps in understanding long‐term thermal behavior and practical challenges in processing ceramic waste. Highlighting environmental benefits such as reduced carbon footprint, the study aligns with SDGs 9, 11, 12, and 13, advocating ceramic waste's potential to improve energy efficiency and promote a circular economy in the construction sector. International collaborations could enhance the global supply chain for ceramic waste recycling, fostering partnerships between waste‐producing industries and construction companies to address global environmental challenges. Through such collaborations, economies could scale sustainable practices, driving innovation and facilitating the transition to more sustainable construction materials worldwide.
This review explores the integration of ceramic waste into heat‐resistant concrete as a sustainable solution aligned with the UN Sustainable Development Goals (SDGs). Ceramic waste, a major industrial by‐product, shows promise as coarse aggregate in concrete, supporting waste reduction and energy efficiency in construction. The study examines mechanical properties, durability, and high‐temperature performance through a literature review, bibliometric analysis using VOSviewer, and interviews with ceramic manufacturers. Findings reveal gaps in understanding long‐term thermal behavior and practical challenges in processing ceramic waste. Highlighting environmental benefits such as reduced carbon footprint, the study aligns with SDGs 9, 11, 12, and 13, advocating ceramic waste's potential to improve energy efficiency and promote a circular economy in the construction sector. International collaborations could enhance the global supply chain for ceramic waste recycling, fostering partnerships between waste‐producing industries and construction companies to address global environmental challenges. Through such collaborations, economies could scale sustainable practices, driving innovation and facilitating the transition to more sustainable construction materials worldwide.
In this paper, based on our previous expertise on ceramic artifacts, several archaeometric methods applied to some samples collected from the Dudești archaeological site (Oltenia region, Romania) are reported for the first time in the literature. The chemical composition, and microstructural and morphological characterization of these samples offer important conclusions about the processing conditions. Some specific techniques such as X-ray diffraction (XRD), wavelength-dispersive X-ray fluorescence (WDXRF), optical microscopy (OM), stereomicroscopy, environmental scanning electron microscopy (ESEM), Fourier-transform infrared spectroscopy (FTIR), and Raman spectroscopy provide compositional information about composition and the decay processes. Additionally, the Brunauer–Emmett–Teller (BET) method helps to estimate pore sizes and specific surface areas. A thermogravimetric analysis (TGA/TDG) was used to establish details regarding the production technology and also the raw materials source used to make the ceramics. The obtained results indicated that the ceramics are based on a paste of muscovite and feldspar, with high plasticity, together with quartz and hematite/goethite and calcite, the latter in very low concentrations. According to the obtained results, we could assume that clays from the investigated samples had a low concentration of calcium. Gypsum is present as paste in a very low concentration, identified by the presence of a sulphate group in WDXRF. In the same context, iron oxides have a significant impact on the firing atmosphere of iron-rich clay, resulting in blackening under reducing conditions and a reddish coloration under oxidative conditions. The use of hematite and gypsum as pigments further contributes to the color variations in the pottery. The consistent firing temperature range of 200–600 °C in Dudești pottery implies a standardized production process, the variation in color being dependent on the specific reducing/oxidative regime conditions (reducing atmosphere followed by rapid oxidation). This relationship between clay composition and local sources suggests a connection to Neolithic pottery production in the region and their color depending on the reducing/oxidative regime conditions.
Cracked rock masses in cold regions are subjected to freeze–thaw cycles over extended periods, resulting in freeze–thaw deformation. The combined effects of freeze–thaw cycling and the depth of cracks significantly influence the stability and durability of underground rock engineering in these regions. In some cold regions with minimal annual rainfall, rock masses are unable to absorb external water during freeze–thaw cycles. As freeze–thaw deformation progresses, the rock transitions naturally from a saturated state to an unsaturated state. To investigate the deformation damage mechanisms and evolution patterns of saturated red sandstone with initial non-penetrating cracks of varying depths (20 mm, 30 mm, 40 mm) under freeze–thaw cycling conditions without external water replenishment and with naturally varying saturation levels, relevant freeze–thaw cycle experiments and strain monitoring were conducted. The results indicate that cracked red sandstone experiences residual strain in each freeze–thaw cycle, which gradually accumulates, leading to irreversible freeze–thaw damage deformation. The cumulative residual strain of the rock specimen after 45 freeze–thaw cycles was 40.69 times greater than the residual strain from the first cycle. Additionally, the freeze–thaw strain characteristic values exhibited a clear correlation with crack depth. These findings provide experimental methods and data references for analyzing the deformation and failure mechanisms of cracked rock induced by freeze–thaw damage in cold regions.
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