A lithium titanate porous film on the negative electrode maintains battery output by suppressing short-circuits during separator rupture.
Segmented module trays enable isolated replacement of defective secondary battery cells, maintaining continuous activation process efficiency.
A lithium battery electrode active material uses a metal borate coating to stabilize the core lattice structure.
Decomposing a cyclic compound deposits a protective film on the positive electrode, suppressing oxidation decomposition and element elution.
Heat treating carbon source with lithium manganese phosphate forms conductive coating on active material particles.
A continuous wave laser cuts electrode precursors into neat linear shapes at high speeds.
Amorphous carbon coating on lithium metal anodes enables reversible ion transport while preventing dendrite formation.
In-situ lithium formation on current collectors resolves dendrite growth and safety hazards while maintaining high Coulombic Efficiency.
A rod-shaped spacer inserts parallel to the axial direction during winding to form internal spaces within the electrode assembly.
SPPY cathode materials resolve capacity retention decline by covalently bonding sulfur within a stable poly(pyridinopyridine) matrix.
A monolithic porous open-cell structure uses a removable template to create high void volume fractions.
Vertically-aligned graphene-carbon fiber hybrid electrodes enable high specific capacitance through a 3D mesoporous architecture.
A rechargeable battery uses a light absorbing member to shield electrode assemblies during collector plate welding.