Effects of Polyethylene Fiber Dosage and Length on the Properties of High-Tensile-Strength Engineered Geopolymer Composite

Keyphrases

• Capacity Control 16%
• Compressive Strength 50%
• Control Ability 16%
• Control Capacity 16%
• Crack Control 33%
• Engineered Cementitious Composites 16%
• Engineered Geopolymer Composites 100%
• Environmental Assessment 16%
• Fiber Bridging 33%
• Fiber Clusters 16%
• Fiber Dosage 100%
• Fiber Length 100%
• Fiber-reinforced 16%
• Flowability 16%
• Hardened Performance 16%
• High Dose 16%
• High Tensile Strength 100%
• High-performance Fibers 16%
• Long Fiber 16%
• Low Environmental Impact 16%
• Mechanical Properties 16%
• Mechanical Strain 16%
• Model Modification 16%
• Polyethylene Fiber 100%
• Prediction Model 16%
• Reinforced 16%
• Strain Capacity 16%
• Strain Hardening 16%
• Tensile Strain Capacity 16%
• Tensile Strength 83%

Engineering

• Bridging Effect 28%
• Capacity Control 14%
• Compressive Strength 14%
• Engineered Cementitious Composite 14%
• Engineered Geopolymer Composites 100%
• Environmental Assessment 14%
• Fibre Length 14%
• Long Fiber 14%
• Low Environmental Impact 14%
• Modified Model 14%
• Polyethylene Fiber 100%
• Strain Capacity 14%
• Strain Hardening 14%
• Tensile Strain Capacity 14%
• Test Result 14%
• Ultimate Tensile Strength 100%

Material Science

• Compressive Strength 14%
• Flowability 14%
• Geopolymers 100%
• Polyethylene 100%
• Reinforced Composite 14%
• Tensile Strain 14%
• Ultimate Tensile Strength 100%
• Work Hardening 14%