Development of self-sensing ultra-high-performance concrete using hybrid carbon black and carbon nanofibers

Keyphrases

• Carbon-carbon 100%
• Carbon Black 100%
• Carbon Nanofibers 100%
• Self-sensing 100%
• Self-development 100%
• Ultra-high Performance Concrete 100%
• Hybrid Carbon Materials 100%
• Sensing Performance 25%
• Concrete Matrix 12%
• Percolation Threshold 12%
• Carbon Hybrids 12%
• Piezoresistive Sensing 12%
• Microstructure 6%
• Structural Health Monitoring 6%
• Civil Infrastructure 6%
• Behavior Mechanisms 6%
• Microstructural 6%
• Potential Gains 6%
• Compressive Load 6%
• Electrical Performance 6%
• Carbon Effect 6%
• Compressive Strength 6%
• Signal-to-noise 6%
• Synergetic Effect 6%
• Impedance Spectroscopy 6%
• Piezoresistive 6%
• Equivalent Circuit Modeling 6%
• Sensing Mechanism 6%
• Health Maintenance 6%
• Conductive Filler 6%
• Electrical Network 6%
• Hybrid Filler 6%
• Carbon Black Nanoparticles 6%
• Cyclic Load 6%
• Conductive Characteristics 6%
• Self-sensing Capacity 6%
• Conductive Behavior 6%
• Material Design Strategies 6%
• Nano Carbon Black 6%
• Cement-based Sensor 6%
• Hybrid Nanofillers 6%
• Carbon Black Content 6%
• Self-performance 6%
• Piezoresistive Performance 6%

Engineering

• Ultra-High-Performance Concrete 100%
• Carbon Nanofibre 100%
• Black Carbon 100%
• Sensing Performance 33%
• Conductive 25%
• Concrete Matrix 16%
• Percolation Threshold 16%
• Structural Health Monitoring 8%
• Cyclic Loads 8%
• Nanofiller 8%
• Potential Benefit 8%
• Electrical Performance 8%
• Compressive Loading 8%
• Conductive Filler 8%
• Equivalent Circuit 8%
• Sensing Mechanisms 8%
• Nanoparticles 8%
• Hybrid Filler 8%
• Compression Strength 8%
• Compressive Strength 8%