Enchanced electrochemical performances of Li4Ti5O12/Sn composites anode via sol-hydrothermal method for lithium ion batteries

Keyphrases

• Anatase 33%
• Ball Milling Method 33%
• Battery Capacity 33%
• C-rate 33%
• Capacity Loss 33%
• Charge-discharge 33%
• Composite Anode 100%
• Dealloying 33%
• Efficient Capacity 33%
• Electrochemical Performance 100%
• Electrolyte Resistance 33%
• High Charge-discharge Rates 33%
• Ion Source 33%
• Li4Ti5O12 100%
• Lithium Hydroxide 33%
• Lithium Titanate 33%
• Lithium-ion 33%
• Lithium-ion Battery 100%
• Low Charge 33%
• Low Concentration Electrolyte 33%
• Rate of Increase 33%
• Rutile 66%
• Sn-based Composites 100%
• Sol-gel Method 33%
• Sol-hydrothermal Method 100%
• Spinel 33%
• X Ray Diffraction 33%

Material Science

• Alloying 50%
• Anode 100%
• Composite Material 100%
• Dealloying 50%
• Hydrothermal Synthesis 100%
• Lithium 50%
• Lithium Ion 50%
• Lithium Ion Battery 100%
• Sol-Gel 50%
• Titanate 50%
• Titanium Dioxide 50%
• X-Ray Diffraction 50%

Physics

• Alloying 50%
• Electrochemical Performance 100%
• Hydrothermal Synthesis 100%
• Ion Source 50%
• Lithium-Ion Batteries 100%
• Sol-Gel 50%
• Spinel 50%
• Titanates 50%
• X Ray Diffraction 50%