Improved Electrochemical Properties of Nickel-Rich, Low-Cobalt Layered Oxide Cathodes Using Dual-Functional Di-tert-butylmethyl Adamantoyl Silane Additives

Keyphrases

• Parasitic Reactions 100%
• Full Cell 100%
• Nickel-rich 100%
• Tert 100%
• Dual-functional 100%
• Silane Precursor 100%
• Layered Oxide Cathodes 100%
• Excellent Electrochemical Properties 100%
• Low Cobalt 100%
• Electrochemical Performance 50%
• Electrolyte 50%
• Cycling Stability 50%
• Lithium Anode 50%
• Electrochemical Analysis 50%
• Spectroscopic Analysis 50%
• High Specific Energy 50%
• Fluorination 50%
• Fluorinated 50%
• Passivation Layer 50%
• High Capacity Retention 50%
• Graphite Anode 50%
• Anode Surface 50%
• Organosiloxane 50%
• Silane 50%
• Practical Viability 50%
• Nickel-rich Cathode 50%
• In Situ Decomposition 50%
• Increased Demand 50%
• Electrode/electrolyte Interface 50%
• Cathode-electrolyte Interface 50%
• High-power Lithium-ion Batteries 50%
• Full-cell Studies 50%

Chemistry

• Cobalt 100%
• Parasitic 100%
• Oxide 100%
• Silane 100%
• Lithium Ion Battery 50%
• Fluorination 50%
• Chemical Passivation 50%
• Electro Analytical Method 50%
• Spectroscopic Analysis 50%
• Lithium 50%
• Electrode-Electrolyte Interface 50%
• Organosiloxane 50%

Material Science

• Cathode 100%
• Electrochemical Property 100%
• Cobalt 100%
• Silane 100%
• Oxide Compound 100%
• Anode 66%
• Lithium Ion Battery 33%
• Lithium 33%
• High Energy Density 33%