Controlled carbon crystallinity and high surface area improve oxidation resistance, metal dispersion, and fuel cell catalyst activity.
Hierarchical micropores and mesopores with nitrogen-doped graphitic carbon boost charge storage and retain capacitance at higher discharge rates.
Controlled graphite particle size, surface area, and electrode compaction cut cycling expansion while preserving energy density and kinetics.
High-aspect-ratio carbon nanotubes form conductive contact networks in polyester, preserving low impedance even after high-rate extension.
A carbon layer with sp3 bonds and controlled thermal shrinkage helps the electrode bend without cracking or sharp resistance increase.
Acid leaching and high-temperature graphitization turn low-grade petcoke into a low-cost artificial graphite anode with improved purity and crystallinity.