Argyrodite composite electrolytes form dense thin films that maintain electrode contact, preventing voids and dendrite formation in solid-state batteries.
Atomic layer deposition and parylene layers prevent self-discharge in thin film lithium-ion batteries by accommodating anode volume changes.
A zinc secondary battery negative electrode composition comprising ZnO particles, metallic Zn, and a hydroxyl-containing binder resin.
A composite cathode uses a crystalline phosphate active material to enhance electronic conduction pathways.
Heating the shrinkable coating eliminates drying steps and resolves adhesion complexity in continuous battery manufacturing.
Reinforced electrolyte membrane with impregnated pores provides mechanical strength and ionic conductivity for lithium air batteries.
Dry processing with a fibrillated binder prevents sulfide electrolyte deterioration and electrical shorts while enabling thick electrodes.
A composite electrolyte membrane enables stable fuel cell operation at 100°C or higher under non-humidified conditions by maintaining ionic conductivity.
A cathode mixture combines sulfur with metal sulfides to enhance electron conductivity and capacity in all-solid-state batteries.
Gel-polymer electrolyte layers release liquid to enable high-rate ion transfer, resolving dendrite safety risks and low conductivity limits.
Embedding graphene nanostructures into hydrocarbon electrolyte membranes enhances mechanical strength and thermal resistance.
LiCl composite stabilizes sulfide solid electrolyte conductivity by suppressing hydrogen sulfide generation during air exposure.