Anode active material particles with a specific BET surface area maintain stable electron and ion conductivity in all-solid-state batteries.
An olefinic polymer electrolyte sequesters lithium polysulfides via chemical bonding, preventing diffusion and capacity fade in lithium sulfur batteries.
Layered lithium composite metal oxide with controlled particle diameter and specific surface area.
Aromatic polyurea resin backbone with sulfonic acid side chains improves proton conductivity and heat resistance without sacrificing mechanical strength.
A Bi-substituted lithium lanthanum zirconate solid electrolyte enables low-temperature sintering for all-solid-state batteries.
Neutral host molecules shield Coulombic repulsion during self-assembly, enabling quantitative synthesis of high crystallinity polyelectrolyte single crystals.
Uniform nano-sized coating layers reduce interface resistance and improve charge-discharge performance in all-solid state batteries.
A flexible solid polymer electrolyte incorporates lithium ions within microphase separated spherical domains to enable high ion transport.
Ion exchange in molten salt increases lithium ion conductivity by orders of magnitude, enabling larger battery applications.
A secondary battery seals a phase-transitioning active material with a solid electrolyte to stop dissolution and maintain capacity.
A composite carrier of carbon black and metal oxides protects the catalyst from oxidation corrosion during fuel cell start-stop operations.
An oxide layer on a sulfide solid electrolyte prevents lithium extraction at extreme potentials, maintaining high ionic conductivity.
A graphene heat dissipator transfers thermal energy from internal components to the battery pack surface.
A composite membrane uses polybenzimidazole and ionic liquids to create a stable proton-conducting structure.
An electrode current collector structure uses a resistive layer with openings to contact the coating layer.
A conductive porous sheet with large pores collects current inside the gas flow channel, reducing resistance while maintaining efficient fuel supply.
Sputter deposition from a single lithium cobalt oxide target produces nanostructured anode and cathode layers, eliminating separate manufacturing steps.
Metal-organic framework adsorbs hydrogen sulfide from sulfide solid electrolytes to preserve ion conductivity.