Carbon-coated Li₄Ti₅O₁₂ optimized by fluorine regulation strategy for high-rate lithium-ion batteries with mixed diffusion and capacitive effects

Keyphrases

• Oxygen Vacancy 100%
• Diffusion Effect 100%
• Lithium-ion Battery 100%
• Regulation Strategy 100%
• Carbon Coating 100%
• Fluorine Doping 100%
• Capacitive Effect 100%
• Defect Vacancy 100%
• Li4Ti5O12 100%
• High-power Lithium-ion Batteries 100%
• Particle Size 50%
• Low Temperature 50%
• Active Sites 50%
• Good Stability 50%
• Ionic Conductivity 50%
• Anode Material 50%
• Carbon Layer 50%
• Core-shell Structure 50%
• Oxygen Vacancy Concentration 50%
• Electronic Conductivity 50%
• Rate Performance 50%
• Combination Strategy 50%
• Carbon Matrix 50%
• Cycling Rate 50%
• Capacity Retention 50%
• External Strategies 50%
• Pseudocapacitance 50%
• Stability Performance 50%
• High Specific Capacity 50%
• Energy Storage Mechanism 50%
• Internal Strategies 50%
• Spinel Lithium Titanate 50%
• Matrix Defects 50%
• Nitrogen-doped Carbon Layer 50%
• Layer Defects 50%
• Excellent Cycling Stability 50%
• Low Electronic Conductivity 50%

Material Science

• Lithium Ion Battery 100%
• Oxygen Vacancy 100%
• Lithium 33%
• Titanate 33%
• Ionic Conductivity 33%
• Anode Material 33%
• Core-Shell Structure 33%