A Bifunctional Chemomechanics Strategy to Suppress Electrochemo-Mechanical Failure of Ni-Rich Cathodes for All-Solid-State Lithium Batteries

Keyphrases

• All-solid-state Lithium Battery 100%
• Bifunctional 100%
• Capacity Cycles 20%
• Characterization Techniques 20%
• Chemo-mechanics 100%
• Coating Layer 80%
• Cycle Frequency 20%
• Electrochemical Decomposition 20%
• Electrochemical Properties 20%
• Electrochemical Stability 20%
• Electrochemical Stability Window 20%
• Fast Ionic Conductor 20%
• Finite Element Simulation 20%
• High Energy Density 20%
• High Mechanical Strength 20%
• Li6PS5Cl 60%
• Life Performance 20%
• LiNi0.6Co0.2Mn0.2O2 20%
• LiZr2(PO4)3 60%
• Mechanical Failure 100%
• Mechanical Properties 20%
• Mechanical Strength 20%
• Ni-rich Cathode 100%
• Particle Disintegration 20%
• Performance Degradation 20%
• Practical Implementation 20%
• Rate Performance 20%
• Reversible Capacity 20%
• Strength Stability 20%
• Synergistic Effect 20%
• Volume Change 20%
• Young's Modulus 20%

Engineering

• All-Solid-State Lithium Batteries 100%
• Chemomechanics 100%
• Cycle Life 20%
• Energy Density 20%
• Finite Element Method 20%
• Layer Coating 80%
• Mechanical Failure 100%
• Performance Degradation 20%
• Polycrystalline 40%
• Synergistic Effect 20%
• Young's Modulus 20%

Material Science

• All-Solid-State Lithium Batteries 100%
• Cathode 100%
• Chemomechanics 100%
• Electrochemical Property 20%
• Energy Density 20%
• Finite Element Method 20%
• Mechanical Failure 100%
• Mechanical Strength 40%
• Solid Electrolyte 20%
• Young's Modulus 20%