Strength, mineralogical, microstructural and CO2 emission assessment of waste mortars comprising excavated soil, scallop shells and blast furnace slag

Keyphrases

• Microstructural 100%
• Blast Furnace Slag 100%
• Excavated Soil 100%
• Carbon Emission Prediction 100%
• Waste Mortar 100%
• Scallop Shell 100%
• Mechanochemical 75%
• Thermally Activated Processes 50%
• Construction Materials 50%
• Portland Cement 50%
• Elemental Ratios 50%
• Supplementary Cementitious Materials 50%
• Shell Waste 50%
• Landfill 25%
• Regression Analysis 25%
• Urbanization 25%
• Construction Sector 25%
• Compressive Strength 25%
• Linear Function 25%
• Thermal Treatment 25%
• Na-K 25%
• Thermal Methods 25%
• High Strength 25%
• CEM I 25%
• Low Carbon 25%
• CO2 Emissions 25%
• Strength Performance 25%
• Effective Strategies 25%
• Fly Ash 25%
• Circular Economy 25%
• Aquaculture 25%
• Alkali 25%
• Filter Cake 25%
• Mortar 25%
• Pozzolanic 25%
• Mortar Compressive Strength 25%
• Industrial Minerals 25%
• Strengths-based 25%
• Mechanochemical Technique 25%
• Exponential Function 25%
• Cement Mortar 25%
• Ash Slag 25%
• Mineral Waste 25%

Engineering

• Blast Furnace Slag 100%
• Portland Cement 100%
• Supplementary Cementitious Material 100%
• Construction Sector 50%
• Linear Function 50%
• Strength Performance 50%
• Day Compressive Strength 50%
• Sectoral 50%
• Filter Cake 50%
• Cementitious Mortar 50%
• Exponential Function 50%
• Compression Strength 50%
• Compressive Strength 50%

Material Science

• Carbon Dioxide 100%
• Portland Cement 100%
• Building Material 100%
• Compressive Strength 100%
• Cementitious Material 100%