Nanostructure and damage characterisation of bitumen under a low cycle strain-controlled fatigue load based on molecular simulations and rheological measurements

Engineering

• Fatigue Damage 100%
• Strain 100%
• Lower Cycle 100%
• Fatigue Load 100%
• Nanomaterial 100%
• Models 50%
• Macroscale 33%
• Fatigue Loading 33%
• Computer Simulation 33%
• Crack Length 33%
• Saturates 16%
• Molecular Chain 16%
• Failure Behavior 16%
• Molecular Scale 16%
• Loading Direction 16%
• Increasing Load 16%
• Service Life 16%
• Load Cycle 16%
• Asphalt Pavements 16%
• Fatigue Performance 16%
• Mechanisms 16%
• Stress-Strain Relations 16%
• Tensiles 16%
• Determines 16%
• Aromatics 16%
• Damage Behavior 16%
• Numerical Technique 16%
• Dynamic Equilibrium 16%
• Reduction 16%
• Rheometer 16%
• Fatigue Resistance 16%
• Potential Energy 16%
• Energy Engineering 16%

INIS

• nanostructures 100%
• damage 100%
• simulation 100%
• fatigue 100%
• strains 100%
• molecular dynamics method 50%
• loading 25%
• origin 16%
• molecular structure 16%
• volume 16%
• length 16%
• cracks 16%
• increasing 8%
• molecular models 8%
• failures 8%
• asphalts 8%
• asphaltenes 8%
• energy 8%
• reduction 8%
• pavements 8%
• interactions 8%
• aromatics 8%
• resins 8%
• molecules 8%
• potentials 8%
• performance 8%
• potential energy 8%
• chains 8%
• van der waals forces 8%
• equilibrium 8%
• service life 8%
• computers 8%