Lithium oxalatoborate additives mitigate redox shuttle effects and enhance cycle life in lithium sulfur batteries.
Fluoroborate and lithium difluorophosphate additives modify electrolyte composition to enhance battery performance.
A film-forming additive undergoes oxidative polymerization to deposit a thin polar layer that prevents electrolyte decomposition at high voltages.
A silicon compound negative electrode active material features a carbon coating layer with controlled specific surface area and compression resistivity.
Fluorinated electrolyte additives scavenge radicals to suppress swelling and prevent resistance increase in high-nickel cathodes.
A multi-nitrile compound stabilizes the electrolyte interface in high-voltage lithium secondary batteries.
A benzotriazole-based additive creates a thin polar film that prevents electrolyte oxidation at high voltages, improving cycle retention.
Sultam additives form stable SEI films that reduce internal resistance increase rates during high-temperature operation.
A cyano compound electrolytic solution forms a protective anode film to suppress decomposition and maintain ion conductivity under high temperatures.
Imide lithium salts and sulfonate cyclic carbonate additives form a robust solid electrolyte interface on the negative electrode.
Composite electrolyte merges plastic crystal matrix with crosslinked polymer structure to resolve safety risks and mechanical weakness in secondary batteries.
A perfluoroalkyl group additive modifies the solid electrolyte interface film in lithium secondary batteries to enhance output performance.
A divalent imide anion salt enhances lithium conductivity within non-aqueous electrolytic solutions.
An organosilicon compound scavenges hydrogen fluoride to form a stable solid electrolyte interface layer.
A method for manufacturing electrode active material using compatible solvents to form a conductive carbon film on particle surfaces.
A heat-resistant porous layer reinforced with crosslinkable binders prevents separator fracture at 200°C, avoiding thermal runaway.
Organic radical polyimide enables flexible ultrathin electrodes that resolve cracking in inorganic materials while maintaining high heat resistance.