See how a dual-stage sodium heat engine uses segmented temperature zones and different electrol
A lithium nitrate and planar macrocyclic additive system stabilizes carbonate electrolyte to suppress dendrites and support high-voltage cycling.
Fluorinated pyridine additives in a mixed-ether Li-S electrolyte suppress lithium dendrites and improve cycle life and charge-discharge efficiency.
A hydrolyzed polymer separator boosts ion conductivity while limiting swelling and vanadium or hydrogen crossover in batteries.
A bisphosphate additive stabilizes the electrode interface and SEI, improving flame retardancy, high-temperature storage, and battery lifespan.
A fluoropolymer-LLZO porous membrane suppresses oxide surface reactions to keep ion conductivity, strength, and thermal stability in lithium batteries.
Spherical lithium-ion-conducting particles in a polymer composite raise filler loading, cut interfacial resistance, and improve solid-state battery stability.
A three-solvent electrolyte balances Li+ transport, conductivity, and electrochemical stability for high-voltage lithium metal batteries.
Insoluble phosphate particles in a nonaqueous electrolyte form and repair a cathode coating film to suppress solvent oxidation and extend cycle life.
An open-frame fluorine-containing solid-state electrolyte boosts ion transport while retaining high-voltage stability for all-solid-state batteries.
A formula-based electrolyte additive forms a robust SEI that suppresses cathode side reactions, swelling, and resistance growth at high temperature.
Zinc substitution in lithium-deficient sulfide solid electrolytes raises ionic conductivity while reducing H2S release on moisture contact.