Synthesizing Li2MnO3 composite cathodes via co-precipitation to boost specific capacity and energy density.
A secondary cell design inverts the anode to cathode capacity ratio below 0.9 to enable high Coulombic efficiency.
A semi-liquid gallium-indium-tin alloy coating stabilizes the lithium metal anode interface during battery operation.
Rotating conveying component and folding table around axis centers increases connection line distance to provide receding space during electrode sheet lamination.
Milling fluorinated carbon fibers to specific particle sizes increases cathode density and volumetric capacity.
Segmented cutters eliminate burrs that damage separators, maximizing coated area and battery capacity.
Mixed particle sizes in the positive electrode composite layer improve adhesion on an aluminum alloy substrate, reducing resistance increase during cycling.
Graphene polymer binder bonds electroactive particles while conducting electrons and heat, eliminating separate additives to resolve thermal runaway risks.
Composite passivation layer with film-like and particulate structures on negative electrodes maintains stable resistance levels.
A conformal metal chalcogenide layer mediates lithium deposition on current collectors to enhance adhesion and coulombic efficiency.
A periodate battery uses a multi-electron redox process to achieve high specific capacity.
Rocking motion of the agitating blade prevents powder accumulation, resolving large granule formation in wet stirring processes.
A conductive composition underlayer enhances adhesion between electrode components and current collectors, resolving dispersion and fluidity trade-offs.
Sequential additive injection and charging creates uniform coating on the negative electrode, resolving capacity retention issues from non-uniform distribution.
Surface-treated copper foil combines precise roughness with a chromium anti-tarnish layer to prevent oxidation while maintaining low electrical resistivity.
In situ anode formation via irreversible compensating additives simplifies manufacturing complexity while maintaining high energy density.