Understanding the combined effects of microcrystal growth and band gap reduction for Fe_(1-x)Ti_xF₃ nanocomposites as cathode materials for lithium-ion batteries

Engineering

• Band Gap Reduction 100%
• Charge Transfer Resistance 33%
• Combined Effect 100%
• Crystallite 33%
• Cycling Stability 33%
• Diffusion Coefficient 33%
• Discharge Capacity 66%
• Dopants 33%
• Energy Gap 100%
• Lithium-Ion Batteries 100%
• Microcrystalline 33%
• Nanocomposite 100%
• Room Temperature 33%

Material Science

• Cathode Material 100%
• Crystalline Material 50%
• Crystallite 50%
• Density 100%
• Diffusivity 50%
• Doping (Additives) 50%
• Electrochemical Property 50%
• Electrochemical Reaction 50%
• Lithium Ion Battery 100%
• Nanocomposites 100%
• Scherrer Equation 50%

Chemical Engineering

• Diffusion 50%
• Microcrystals 100%
• Nanocomposite 100%