A fully coupled diffusional-mechanical finite element modeling for tin oxide-coated copper anode system in lithium-ion batteries

Keyphrases

• Active Layer 100%
• Lithium-ion Battery 100%
• Finite Element Modeling 100%
• Diffusional 100%
• Tin Oxide 100%
• Anode System 100%
• Copper Anode 100%
• Charging Rate 66%
• X Ray Diffraction 33%
• Three-dimensional (3D) 33%
• Complex Structure 33%
• Plastic Deformation 33%
• Finite Element Model 33%
• Volume Change 33%
• Mechanical Behavior 33%
• Strain Data 33%
• Pressure Gradient 33%
• Lithiation 33%
• Tensile Strain 33%
• Stress Interaction 33%
• Experimental Strains 33%
• Charging Process 33%
• In Operando 33%
• Mechanical Contact 33%
• Hydrostatic Pressure 33%
• Strut 33%
• Residual Strain 33%
• Stress Gradient 33%
• Hydrostatic Stress 33%
• High Gradient 33%
• Hollow Strut 33%
• Finite Element Study 33%
• Mechanical Degradation 33%
• Diffusive Flux 33%
• Lithium Diffusion 33%
• Diffusion-induced Stress 33%

Engineering

• Lithium-Ion Batteries 100%
• Active Layer 100%
• Fem Model 100%
• Induced Change 33%
• Stress Gradient 33%
• Good Agreement 33%
• Plastic Deformation 33%
• Complex Structure 33%
• Ray Diffraction 33%
• Hydrostatic Stress 33%
• Powerful Method 33%
• Strain Data 33%
• Diffusion Flux 33%
• Mechanical Degradation 33%
• Deep Understanding 33%
• Charging Process 33%
• Finite Element Modeling 33%
• Tensile Strain 33%
• Residual Strain 33%
• Finite Element Analysis 33%
• Pressure Gradient 33%
• Fluid Statics 33%

Material Science

• Anode 100%
• Lithium Ion Battery 100%
• Tin Oxide 100%
• Finite Element Modeling 100%
• Fluid Statics 66%
• Lithium 33%
• Tensile Strain 33%
• Plastic Deformation 33%
• Mechanical Degradation 33%
• Finite Element Methods 33%
• X-Ray Diffraction 33%