Predicting plastic energy dissipation (PED) using phenomenological constitutive equations for glassy and semi-crystalline polymer solids

Keyphrases

• Constitutive Equation 100%
• Semicrystalline Polymers 100%
• Plastic Energy Dissipation 100%
• Strain Rate 28%
• Processing Equipment 28%
• Constitutive Relation 28%
• Melting Length 28%
• Particulate 14%
• Simulation Model 14%
• Solid Polymers 14%
• Fast Processing 14%
• Corotation 14%
• Melting Mechanism 14%
• Evaluation Experiment 14%
• Processing Conditions 14%
• Melting Simulation 14%
• Counter-rotating 14%
• Processing Speed 14%
• Energy Estimates 14%
• Reactive Processing 14%
• Age Distribution 14%
• Amorphous Polymer 14%
• Solid Particulates 14%
• Number of Experiments 14%
• Compressive Deformation 14%
• Cylindrical Sample 14%
• Engineering Estimate 14%
• Rapid Melting 14%
• Unconfined Compressive 14%
• Dissipative Heating 14%
• Engineering Strain 14%
• Twin Rotor 14%
• Compressive Stress-strain Behavior 14%

Engineering

• Constitutive Equation 100%
• Energy Dissipation 100%
• Semicrystalline Polymer 100%
• Atmospheric Aerosol 28%
• Strain Rate 28%
• Processing Equipment 28%
• Constitutive Relation 28%
• Engineering 14%
• Tasks 14%
• Engineering Strain 14%
• Rotors 14%
• Compressive Stress 14%
• Stress-Strain Relations 14%
• Processing Condition 14%
• Amorphous Polymer 14%
• Processing Rate 14%
• Compressive Deformation 14%

Material Science

• Strain Rate 100%
• Semi-Crystalline Polymer 100%
• Amorphous Material 50%
• Stress-Strain Relations 50%