Autogenous self-healing of low embodied energy cementitious materials: Effect of multi-component binder and crack geometry

Keyphrases

• Cementitious Materials 100%
• Autogenous Self-healing 100%
• Crack Geometry 100%
• Low Embodied Energy 100%
• Self-healing Efficiency 100%
• Multicomponent Binders 100%
• Material Effect 100%
• Binder Composition 100%
• Fractal Dimension 66%
• Crack Closure 66%
• Self-healing 66%
• Synergistic Effect 33%
• Chemical Composition 33%
• CO2 Emissions 33%
• Environmentally Friendly 33%
• Porosity 33%
• Performance Level 33%
• Performance Recovery 33%
• Correlation Analysis 33%
• Concrete Properties 33%
• Internal Crack 33%
• Crack Healing 33%
• External Crack 33%
• Green Mortar 33%
• Geometric Complexity 33%
• Compressive Strength 33%
• Sorptivity 33%
• Microstructural Characteristics 33%
• Limestone Powder 33%
• Mineral Additions 33%
• Binder Formulation 33%
• Maximum Crack Width 33%
• Phase Composition 33%
• Cement Replacement 33%
• Self-healing Behavior 33%
• Green Materials 33%
• Silica Fume 33%
• Cracking Behavior 33%
• Intrinsic Properties 33%
• Fly Ash 33%
• Tortuosity 33%
• Self-healing Mechanism 33%
• Self-healing Cement 33%
• Strength Regain 33%
• Green Binder 33%
• Auto Repair 33%
• Blast Furnace Slag 33%

Engineering

• Compression Strength 25%
• Compressive Strength 25%
• Silica Fume 25%