Crystallite size and lattice strain of lithiated spinel material for rechargeable battery by X-ray diffraction peak-broadening analysis

Keyphrases

• X Ray Diffraction 100%
• Crystallite Size 100%
• Lattice Strain 100%
• Rechargeable Batteries 100%
• Diffraction Peak 100%
• Peak Broadening 100%
• Size-strain 100%
• Spinel Materials 100%
• Particle Size 80%
• Milling Duration 40%
• Scanning Electron Microscopy 20%
• Electrochemical Performance 20%
• Capacity Retention 20%
• Sol-gel Method 20%
• Active Materials 20%
• Particle Size Distribution 20%
• High-energy Ball Milling 20%
• Nanopowder 20%
• Mechanical Milling 20%
• Size Reduction 20%
• High Specific Capacity 20%
• Energy Density 20%
• Material Degradation 20%
• Capacity Density 20%
• Scanning Electron Micrograph 20%
• Lithium Rechargeable Battery 20%
• X-ray Diffraction Measurement 20%
• Finite Size 20%
• Scherrer 20%
• Milling Parameters 20%
• Williamson-Hall 20%
• Size Distribution Measurement 20%
• Halder-Wagner Method 20%
• High Specific Energy 20%

Engineering

• Ray Diffraction 100%
• Secondary Battery 100%
• Broadening 100%
• Crystallite Size 100%
• Micrograph 25%
• Retention Capacity 25%
• Size of Particle 25%
• Nanopowder 25%
• Active Material 25%
• Sol-Gel Process 25%
• High-Energy Ball Milling 25%
• Synthesized Material 25%
• Mechanical Milling 25%
• Materials Degradation 25%
• Flux Density 25%
• Particle Size Analysis 25%

Material Science

• X-Ray Diffraction 100%
• Crystallite Size 100%
• Secondary Battery 100%
• Scanning Electron Microscopy 25%
• Sol-Gel 25%
• Lithium 25%
• Diffraction Measurement 25%
• Particle Size Analysis 25%
• Nanopowder 25%
• Energy Density 25%
• Materials Degradation 25%
• Lattice Material 25%