Inner crystalline silicon, outer amorphous silicon, and a coating layer curb anode expansion while improving first efficiency and cycle life.
MgSiO3 in porous silicon with an amorphous carbon coating suppresses anode expansion and improves cycle life and initial efficiency.
A single-walled carbon nanotube coating preserves conductivity in silicon-carbon anodes during volume change, improving cycle life and rate capability.
Inorganic particles with ≥1 V working potential and a ceramic layer help separators resist heat shrinkage and suppress lithium dendrites.
Carbon inside lithium silicate-silicon anode particles raises hardness, reduces cracking stress, and improves charge-discharge cycling.
A nitrogen- and fluorine-containing electrolyte additive forms a robust SEI that improves lithium battery high-temperature storage and capacity retention.
Metal oxide particles added to SiOx anode material curb aqueous slurry instability and improve initial charge-discharge behavior and cycle retention.
Metal fluorides such as KF, BaF2, or NaF trap dissolved Mn2+ in battery cells, cutting anode polarization, impedance, and degradation.
Controlled graphite pore volume, interparticle voids, and SBR binder content preserve electrolyte contact and improve charge-discharge cycle retention.
A mold-defined bonding groove shapes soft lithium tabs during pressing, improving joint uniformity, strength consistency, and resistance stability.
A porous/nonporous anode with interface heteroatom doping improves Li-ion transport and capacity while balancing rate performance and energy density.
Inorganic particles above 1 V and a ceramic layer help separators suppress dendrites, side reactions, and rapid heat shrinkage.
A high-pH outer cathode layer neutralizes electrolyte acids, limiting Mn release from lithium manganese oxide and improving hot-cycle performance.
A dual-phase MgSiO3 buffer in SiOx anode particles suppresses expansion and side reactions while preserving initial efficiency and capacity.