Chemical bonding groups on a 3D conductive matrix guide uniform aluminum plating, preventing short-circuiting and improving anode reversibility.
Using polyacetylene-containing polymer electrodes cuts supercapacitor cost and complexity while maintaining high energy density and capacitance.
A dry-coated fibrillized layer laminated with a wet-cast layer improves pore structure, lowers resistance, and slows capacity fade.
A viscoelastic polymer binder balances adhesion and electrolyte swelling to cut internal resistance and improve high-temperature charge-discharge durability.
High-temperature halogen fluidization plus vacuum and hydrogen treatment preserves small pores in carbon for higher volumetric energy storage.
A mixed-monomer anode binder suppresses hydrogen gas in aqueous silicon slurry while improving adhesion, resistivity, and cycle life.
Organic precursors fed into relaxing atmospheric plasma form conductive adhesion layers on metal electrodes, improving cycle stability.
A self-thickening water-based latex binder replaces rheology modifiers in silicon anode slurries, improving adhesion and avoiding hydrogen gas generation.
A low-melting thermoplastic helps PTFE disperse conductive additives uniformly, improving electrode adhesion and tensile strength without NMP.
A trialkyl phosphate binder system replaces toxic NMP while preserving electrode adhesion, interconnectivity, and durability.
A copolymer and carbonyl-containing solvent improve electrode slurry stability, foil adhesion, conductivity, and high-temperature capacity retention.
A conductive polymer interlayer raises short-circuit resistance in battery electrodes while preserving normal conductivity and adhesion.
A nitrile polymer binder with trace halogenated hydrocarbon balances slurry viscosity stability and electrode peel strength at the current collector.