Electrochemical enhancement of LiFePO₄ as a cathode material by incorporating Cu flakes for lithium ion rechargeable battery

Engineering

• Energy Engineering 100%
• High Surface Area 100%
• Ray Diffraction 100%
• Discharge Rate 100%
• Power Source 100%
• Ray Photoelectron Spectroscopy 100%
• Lithium-Ion Batteries 100%
• Specific Surface Area 100%
• Secondary Battery 100%
• Hybrid Electric Vehicle 100%
• Ball Milling 100%
• Realization 100%
• Electric Vehicle 100%
• Electrical Conductivity 100%

Keyphrases

• Cathode Material 100%
• LiFePO4 100%
• Lithium Rechargeable Battery 100%
• Cu Flakes 100%
• Power Source 25%
• High Surface Area 25%
• Electrochemical Impedance Spectroscopy 25%
• High Capacity 25%
• Electrochemical Properties 25%
• Scanning Electron Microscopy 25%
• X-ray Photoelectron Spectroscopy 25%
• High Specific Energy 25%
• Galvanostatic Intermittent Titration Technique 25%
• X Ray Diffraction 25%
• Lithium-ion Battery 25%
• Composite Cathode 25%
• Electric Vehicle 25%
• Copper(II) Oxide 25%
• Discharge Rate 25%
• Micro-Raman 25%
• Specific Surface Area 25%
• Galvanostatic Measurements 25%
• Uniformly Dispersed 25%
• Capacity Loss 25%
• Electric Conductivity 25%
• LiFePO4 Cathode 25%
• High-rate Performance 25%
• Hybrid Electric Vehicle 25%
• Calcination Process 25%
• Cyclic Performance 25%
• Ball Milling 25%
• Cathode Composite 25%
• High Theoretical Capacity 25%
• Electric Hybrid 25%
• Technique Measurement 25%
• Cu-incorporated 25%

Material Science

• Cathode Material 100%
• Cathode 100%
• Lithium Ion 100%
• Secondary Battery 100%
• Electrochemical Property 20%
• X-Ray Photoelectron Spectroscopy 20%
• X-Ray Diffraction 20%
• Scanning Electron Microscopy 20%
• Lithium Ion Battery 20%
• Dielectric Spectroscopy 20%
• Electrical Conductivity 20%
• Calcination 20%