Improving electrochemical performance of lithium ion batteries using a binder-free carbon fiber-based LiNi_0.5(1-x)Mn_1.5(1-x/3)Cr_xO₄ cathode with a conventional electrolyte

Physics & Astronomy

• carbon fibers 100%
• electric batteries 94%
• lithium 82%
• electrolytes 76%
• cathodes 74%
• cycles 61%
• solid electrolytes 55%
• accumulators 45%
• spinel 45%
• ions 43%
• x rays 41%
• crystallinity 41%
• performance 40%
• high voltages 40%
• charge transfer 39%
• cations 39%
• photoelectron spectroscopy 38%
• crystal structure 36%
• carbon 30%
• transmission electron microscopy 30%
• scanning electron microscopy 30%
• vacuum 29%
• electrodes 28%
• composite materials 28%
• configurations 24%
• diffraction 24%

Engineering & Materials Science

• Lithium-ion batteries 99%
• Cathodes 92%
• Electrolytes 90%
• Carbon fibers 86%
• Binders 86%
• Electrochemical deposition 49%
• Redox reactions 48%
• Solid electrolytes 43%
• Crystal structure 39%
• Charge transfer 39%
• Positive ions 38%
• X ray photoelectron spectroscopy 37%
• Crystallinity 37%
• Transmission electron microscopy 31%
• X ray diffraction 30%
• Ions 28%
• Vacuum 27%
• Materials properties 25%
• Scanning electron microscopy 24%
• Electrodes 23%
• Carbon 23%
• Composite materials 17%
• Electric potential 15%

Chemical Compounds

• Cathode 67%
• Solid Electrolyte 46%
• Carbon Atom 43%
• Redox Reactions 43%
• Carbon Fiber 42%
• Filtration 40%
• Electrodeposition 38%
• Vacuum 36%
• Hydrothermal Method 35%
• Crystallinity 35%
• Voltage 33%
• X-Ray Photoelectron Spectroscopy 32%
• Charge Transfer 32%
• Transmission Electron Microscopy 30%
• Resistance 29%
• Diffusion 28%
• Cation 26%
• Behavior as Electrode 23%
• Crystal Structure 23%
• Composite Material 23%
• X-Ray Diffraction 22%
• Reduction 21%
• Ion 18%