Enhancing the electrochemical properties of LiNi_0.92Co_0.05Mn_0.03O₂ cathode material via co-doping aluminium and fluorine for high-energy lithium-ion batteries

Keyphrases

• Doping Aluminum 100%
• Cycle Performance 100%
• Internal Structure 50%
• LiNixCoyMn1-x-yO2 50%
• Layer Distance 50%
• Ni-rich 50%
• Structure Instability 50%
• Ni-rich Cathode Materials 50%
• High-temperature Solid-state Method 50%
• XRD-Rietveld 50%
• Refined Analysis 50%
• Discharge Process 50%
• Excellent Rate Performance 50%
• Material Cost 50%
• Charging Process 50%
• Low Polarization 50%
• H2-H3 Phase Transition 50%
• NCM Cathode Material 50%
• Cation Mixing 50%
• Surface Instability 50%

Material Science

• Lithium Ion Battery 100%
• Electrochemical Property 100%
• Cathode Material 100%
• Aluminum 100%
• Surface (Surface Science) 25%
• X-Ray Diffraction 25%
• Lithium 25%
• Diffusivity 25%
• Energy Density 25%
• Lithium Ion 25%

Engineering

• Internal Structure 100%
• Co-Doping 100%
• Material Cost 100%
• Safety Performance 100%
• Discharge Capacity 100%