Specific spacing between electrode opening edges buffers calendering and abuse loads, reducing current collector tearing and detachment.
A rough porous fiber-mat substrate with metal layers improves active-layer adhesion and conductivity while reducing delamination in lithium batteries.
An intermediate transfer substrate enables high-speed dry powder deposition with better layer uniformity, finer features, and less smoothing.
A catecholamine surface layer on active material and binder suppresses side reactions and irreversible capacity loss in dry lithium battery electrodes.
Roll-map and cell-ID matching traces each notched electrode back to its source position, enabling cell-level defect isolation and less roll waste.
Continuous electrochemical deposition forms porous 3D battery current collectors that lower resistance and support thick electrodes with longer cycle life.
Heat treatment and mechanical roughening of battery current collector foil improve coating adhesion, cycle retention, and assembly durability.
Measures electrode properties before and after pressing to calculate coating stretch and loading loss, improving battery capacity control.
Controlled {110}/{100} surface texturing in Li or Na foils suppresses dendrites and improves cycle stability in metal anodes.
Dry mixing and heat-pressing anchor active material into a softening metal foil, raising peel strength without increasing penetration resistance.
A crowned rolling roll concentrates pressure at the sheet center to raise cathode mixture density while reducing electrode breakage.
Pre-formed active layers on release films enable roll-to-roll transfer with tighter thickness control and stronger electrode bonding.
Measures electrode properties before and after pressing to calculate elongation-driven loading loss and keep battery capacity within spec.
Super-fibrillized binder and conductive additives enable thinner dry electrode films with lower ESR while preserving mechanical stability.
Cold-ground binder and staged active-material mixing create a flexible dry electrode that improves solid-state battery safety and SOC tracking.
Vision-guided trimming knives adjust free-standing film width and position in real time to stabilize dry electrode lamination on current collectors.
An adjustable feeding shutter and sensor feedback control uncoated width in dry electrode extrusion, improving capacity, energy density, and safety.
A dry-mixed positive electrode layer improves solid-state battery safety while preserving flexibility and state-of-charge tracking.
Real-time temperature feedback keeps the electrode plate uncoated part within range during IHA, preventing breakage and stabilizing pressing quality.
Staged main and sub-roll compression with thickness and temperature sensing improves thin electrode plate uniformity while reducing wrinkles and breakage.
Adjustable laminating and pressurizing rolls with thickness feedback improve active material bonding and electrode thickness consistency.