A coupled dislocation-hydrogen based model of inelastic deformation

Keyphrases

• Activation Barrier 33%
• Activation Energy 33%
• Chemical Potential 66%
• Concentration Gradient 33%
• Dislocation 100%
• Dislocation Density 33%
• Dislocation Motion 33%
• Dislocation Slip 33%
• Dislocation Spacing 66%
• Dislocation Storage 33%
• Dissipation Inequality 33%
• Divergence 33%
• Elastic Strain 66%
• Elastoplasticity 33%
• Energy Balance 33%
• Equilibrium Condition 33%
• Fick's Law 33%
• Flow Properties 33%
• Free Energy 33%
• Gurtin 33%
• Heat Conduction Equation 33%
• Helmholtz Free Energy 33%
• Hydrogen Concentration 100%
• Hydrogen Effect 66%
• Inelastic Deformation 100%
• Internal State Variable 33%
• Internal Strength 33%
• Lattice Dilatation 33%
• Lattice Dislocations 33%
• Local Barrier 33%
• Mass Balance 33%
• Material Deformation 33%
• Mean Free Path 33%
• Microforce 66%
• Plastic Flow Rule 33%
• Plastic Work 33%
• Small Strain 33%
• Solute Gradient 33%
• Source Term 33%
• Statistically Stored Dislocations 66%
• Strain Concentration 33%
• Thermally Activated Processes 33%
• Thermodynamic Constraints 66%
• Thermodynamic Framework 33%
• Thermodynamics 33%
• Total Strain 33%
• Von Mises Stress 33%

Engineering

• Activation Energy 50%
• Chemical Potential 100%
• Concentration Gradient 50%
• Dislocation Density 50%
• Dissipation Inequality 50%
• Elastic Strain 100%
• Energy Engineering 100%
• Equilibrium Condition 50%
• Experimental Observation 50%
• Fick's Law 50%
• Flow Property 50%
• Heat Conduction Equation 50%
• Helmholtz Free Energy 50%
• Internal State Variable 50%
• Internals 50%
• Mass Balance 50%
• Mean Free Path 50%
• Microlevel 50%
• Observed Flow 50%
• Plastic Flow Rule 50%
• Source Term 50%
• Thermodynamic Framework 50%

Material Science

• Activation Energy 50%
• Density 100%
• Elasticity 50%
• Mechanical Strength 100%
• Plastic Flow 50%