A multiscale two-way thermomechanically coupled micromechanics analysis of the impact response of thermo-elastic-viscoplastic composites

Keyphrases

• Carbon Epoxy 33%
• Cell Analysis 33%
• Composite Specimen 33%
• Dynamic Mechanical 33%
• Effective Physical Properties 33%
• Effective Thermo-elastic Properties 33%
• Elastic-viscoplastic 100%
• Energy Equation 33%
• Fiber Matrix 33%
• Global Analysis 66%
• Global Model 33%
• Heat Generation 33%
• High-fidelity Generalized Method of Cells 33%
• Impact Loading 66%
• Impact Response 100%
• Inelastic Strain 66%
• Material Behavior 33%
• Material Point 33%
• Material Properties 33%
• Matrix Components 33%
• Matrix Materials 33%
• Mechanical Deformation 33%
• Mechanical Problems 33%
• Micromechanical Modeling 33%
• Micromechanics Analysis 100%
• Strain-induced 33%
• Temperature Variation 100%
• Thermo-mechanical Coupling 33%
• Thermoelastic 100%
• Thermomechanical 33%
• Ti Composites 33%
• Transient Thermal Problem 33%
• Viscoplastic Material 33%

Engineering

• Boundary Condition 33%
• Composite Specimen 33%
• Energy Equation 33%
• Generalized Method 33%
• Heat Generation 33%
• Impact Loads 66%
• Impact Response 100%
• Local Scale 33%
• Material Behavior 33%
• Material Point 33%
• Matrix Constituent 33%
• Matrix Material 33%
• Mechanical Deformation 33%
• Mechanical Problem 33%
• Method of Cell 33%
• Micromechanics 100%
• Micromechanics Model 33%
• Multiscale 100%
• Multiscale Model 33%
• Temperature Change 100%
• Thermal Problem 33%
• Thermomechanical Coupling 33%
• Transients 33%