Impact of aluminate cements on the durability and mechanical performance of strain-hardening cementitious composites

Keyphrases

• Mechanical Performance 100%
• Strain-hardening Cementitious Composites 100%
• Aluminate Cement 100%
• Durability Performance 100%
• Calcium Aluminate Cement 40%
• Calcium Sulfoaluminate 40%
• Portland Cement 30%
• Fly Ash 20%
• Partial Replacement 20%
• Setting Time 20%
• Strain Softening 20%
• Microstructure 10%
• Porosity 10%
• SEM Analysis 10%
• Steady State 10%
• XRD Analysis 10%
• Crack Opening 10%
• Workability 10%
• Calcium Sulfoaluminate Cement 10%
• Drying Shrinkage 10%
• Calcium Aluminate 10%
• Material Performance 10%
• Hydration Products 10%
• Tensile Strain Capacity 10%
• Tensile Performance 10%
• Impermeability 10%
• Chemical Phases 10%
• Significant Knowledge 10%
• Pore Space 10%
• Knowledge Gaps 10%
• Hardened Properties 10%
• Tensile Strain Hardening 10%
• Cement-based Materials 10%
• Ductile Fiber 10%
• Ye'elimite 10%
• Early Strength Development 10%
• Calcium Aluminate Phases 10%
• Fiber Cement 10%
• Strength Development 10%
• Fresh Properties 10%
• Hydration Effect 10%

Engineering

• Mechanical Performance 100%
• Cementitious Composite 100%
• Durability Performance 100%
• Strain Hardening 100%
• Calcium Aluminate 50%
• Calcium Sulphoaluminate 41%
• Portland Cement 25%
• Partial Replacement 16%
• Setting Time 16%
• Hardening Behavior 16%
• Tensile Strain 8%
• Limitations 8%
• Durables 8%
• Tensiles 8%
• X-Ray Diffraction Analysis 8%
• Material Performance 8%
• Crack Opening 8%
• Rich Composition 8%
• Drying Shrinkage 8%
• Hydration Product 8%
• Pore Space 8%
• Tensile Strain Capacity 8%
• Early Strength Development 8%
• Cement-Based Material 8%
• Strength Development 8%
• Aluminate Phase 8%
• Porosity 8%

Material Science

• Work Hardening 100%
• Composite Material 100%
• Portland Cement 25%
• Tensile Strain 16%
• X-Ray Diffraction 8%
• Scanning Electron Microscopy 8%
• Phase Composition 8%