A mechanistic study of oxidation-induced degradation in a plasma-sprayed thermal barrier coating system.: Part I: model formulation

Keyphrases

• Room Temperature 100%
• Model Formulation 100%
• I-models 100%
• Interfacial Stress 100%
• Mesoscopic 100%
• Plasma Spraying 100%
• Oxidation Effect 100%
• Mechanistic Studies 100%
• Induced Degradation 100%
• Thermal Barrier Coating System 100%
• Thermally Grown Oxide 100%
• Finite Element Method 50%
• Tensile Stress 50%
• Crack Growth 50%
• Stress Relaxation 50%
• Local Stress 50%
• Microstructural 50%
• Creep 50%
• Oxide Thickness 50%
• Phase Transformation 50%
• Oxidation Mechanism 50%
• Constitutive Behavior 50%
• Coated Surface 50%
• Top Coating 50%
• Interface Parameters 50%
• Periodic Unit Cell 50%
• FE Analysis 50%
• Metallic Coating 50%
• Coupled Oxidation 50%
• Metal-ceramic 50%
• Ceramic Coating 50%
• Constitutive Framework 50%
• Mechanical Straining 50%
• Constitutive Approach 50%
• Crack nucleation 50%
• Internal Oxidation 50%
• Applied Mechanical Load 50%
• Ceramic-metal Interface 50%
• Coating Stress 50%
• TBC Systems 50%
• Local Morphology 50%
• External Oxidation 50%

Engineering

• Coating System 100%
• Induced Degradation 100%
• Cermet 100%
• Thermal Barrier 100%
• Barrier Coating 100%
• Room Temperature 100%
• Mechanical Load 50%
• Parametric Study 50%
• Tensile Stress σ 50%
• Local Stress 50%
• Oxide Thickness 50%
• Coating Surface 50%
• Creep 50%
• Stress Relaxation 50%
• Metallic Coating 50%
• Finite Element Analysis 50%
• Sintering 50%

Material Science

• Thermal Barrier Coating 100%
• Nucleation 100%
• Oxide Compound 100%
• Stress Relaxation 50%
• Surface Coating 50%
• Creep 50%
• Metal Interface 50%
• Finite Element Methods 50%
• Ultimate Tensile Strength 50%
• Ceramic Coating 50%
• Cermet 50%
• Sintering 50%