Investigation of non-uniform oxidation based on a mechanochemical phase field model with nonlinear reaction kinetics and large inelastic deformation

Keyphrases

• Nonlinear Reaction 100%
• Reaction Kinetics 100%
• Phase-field Model 100%
• Inelastic Deformation 100%
• Mechanochemical 100%
• Tensile Stress 50%
• Interfacial Morphology 50%
• Thermal Barrier Coatings 50%
• Oxides 25%
• Volume Change 25%
• Geometric Nonlinearity 25%
• Stress Effect 25%
• Stress Concentration 25%
• Large Deformation Theory 25%
• Oxide Layer 25%
• Oxide Growth 25%
• Service Time 25%
• Morphological Evolution 25%
• Deformation Energy 25%
• Oxide Scale 25%
• Thermodynamic Process 25%
• 2D Simulation 25%
• Stress Evolution 25%
• Creep Rate 25%
• Metal-oxide Interface 25%
• Oxide Metal 25%
• Deformation Evolution 25%
• Mechanobiological Model 25%
• Volume Deformation 25%
• Non-equilibrium Thermodynamics 25%
• Eshelby Stress Tensor 25%
• Three-mode 25%
• Higher-order Terms 25%

Engineering

• Phase Field 100%
• Field Model 100%
• Tensile Stress σ 100%
• Thermal Barrier 100%
• Barrier Coating 100%
• Experimental Observation 50%
• Service Time 50%
• Simulation Result 50%
• Large Deformation Theory 50%
• Geometric Nonlinearity 50%
• Oxide Growth 50%
• Oxide Scale 50%
• Thermodynamic Process 50%
• Oxide Layer 50%
• Deformation Energy 50%
• Stress Concentration 50%
• Flatness 50%
• Creep Rate 50%
• Nonequilibrium Thermodynamics 50%

Material Science

• Phase Field Model 100%
• Oxidation Reaction 100%
• Oxide Compound 100%
• Thermal Barrier Coating 50%
• Ultimate Tensile Strength 50%
• Stress Concentration 25%
• Metal Oxide 25%
• Creep 25%
• Metal-Oxide Interface 25%
• Large Deformation Theory 25%