Investigating the Path Dependent Aging Behavior of Nickel Cobalt Aluminum Oxide Cathode Batteries During High C-rate Cycling Conditions

Keyphrases

• Aging Behavior 100%
• Degradation Modes 100%
• Path Dependence 100%
• Oxide Cathode 100%
• Nickel Cobalt Aluminium Oxide 100%
• High C-rate Cycling 100%
• High Performance 66%
• Positive Electrode 66%
• Loss of Lithium Inventory 66%
• Active Material Loss 66%
• High C-rate 66%
• High Stress 33%
• Mode Coupling 33%
• Power Energy 33%
• Accelerated Aging 33%
• C-rate 33%
• Lithium Plating 33%
• Fast Charging 33%
• Automotive Sector 33%
• Lifetime Performance 33%
• Power Performance 33%
• Graphite Anode 33%
• Automotive Environment 33%
• Aging Condition 33%
• High Energy Density 33%
• Specific Degradation 33%
• Operation Conditions 33%
• Differential Voltage Analysis 33%
• Accelerated Degradation 33%
• Aging Studies 33%
• Induced Stress 33%
• Differential Capacity Analysis 33%
• Potential Degradation 33%
• Particle Cracking 33%
• Ni-rich Cathode Materials 33%
• Performance Capability 33%
• Battery Life 33%

Engineering

• Aluminum Oxide 100%
• Positive Electrode 100%
• Active Material 100%
• Oxide Cathode 100%
• Automotives 50%
• Automotive Sector 50%
• Stress Condition 50%
• Induced Stress 50%
• Battery Material 50%
• Critical Path 50%
• Flux Density 50%

Material Science

• Aluminum Oxide 100%
• Cathode 100%
• Lithium 100%
• Cobalt 100%
• Anode 33%
• Plating 33%
• Cathode Material 33%
• High Energy Density 33%