A lithium battery with a coated positive electrode core and nitrile additive electrolyte prevents decomposition at high temperatures.
A lithium battery electrolyte additive polymerizes at high voltages to increase electrode resistance and consume overcharge current.
4,5-difluoro-1,3-dioxolane-2-one prevents decomposition reactions at high temperatures, maintaining discharge capacity and cycle life.
A redox shuttle compound mediates electron transfer to lock cathode potential at a safe reversible oxidation state.
Adding fluorinated carbonates to the electrolyte improves low-temperature discharge and extends battery lifetime without sacrificing voltage stability.
A lithium battery electrolyte solution uses a composite additive system to maintain storage stability at elevated temperatures.
Optimized electrolyte ratios suppress gas generation during storage while maintaining discharge capacity in lithium primary batteries.
A silicon-containing cyclic compound with a vinyl group protects lithium secondary batteries.
Amorphous silicon alloy electrode composition minimizes transition metal content to maintain electrochemical activity while achieving high capacity.
A nonaqueous electrolyte composition uses phosphorus-hydrogen or phosphorus-carbon bonds to enhance discharge capacity maintenance in lithium ion batteries.