Advanced carbon materials
from circular feedstocks

Materials from circular feedstocks.
Aeroborn’s product portfolio is organized around two distinct patented circular platforms.
The CO₂ platform uses molten salt conversion to produce porous, activated, and hard carbons for filtration, supercapacitors, and emerging energy storage applications.
The black mass platform uses recovery, purification, and exfoliation to upgrade battery black mass into recycled graphite and graphene based materials for anode applications.
Together, these pathways support four material families:
Aeroborn GSA
Graphene Silicon Anode
Aeroborn GRA
Battery Grade Graphite
Aeroborn ACS
Activated Carbon for Supercapacitors
Aeroborn ACF
Activated Carbon for Air and Water Filtration

Graphene Silicon Anode Material
Aeroborn GSA is developed through the black mass platform, where recovered battery carbon is purified and exfoliated into graphene based materials. The material is designed for silicon anode pathways that require improved conductivity, mechanical stability, and controlled carbon coating.
Key attributes:
Graphene based wrapping for silicon particles
Designed to support higher anode capacity
Focused on cycle stability and charge transport
Based on recovered battery material streams
Applications:
Electric vehicle cells
High power mobility applications
Grid and stationary storage
Advanced consumer electronics
Target specifications:
Capacity: 1,000 to 1,800 mAh/g
Coulombic efficiency: 98%
Operating temperature: -20°C to 60°C
Silicon content: 30 to 40%
Aeroborn GRA
Battery Grade Graphite
Aeroborn GRA is produced through the black mass platform, where battery black mass is recovered, purified, and upgraded into graphite suitable for battery supply chains. The material is designed to support existing anode manufacturing workflows.
Key attributes:
Developed around graphite anode specifications
Intended for compatibility with existing processes
Aligned with recycled content requirements
Built around circular feedstock availability
Applications:
Lithium ion batteries
Consumer electronics
Electric vehicle battery packs
Stationary energy storage
Target specifications:
Capacity: 370 mAh/g
Purity: >99.5%
Particle size: D50 = 15 to 25 μm
BET surface area: 2 to 5 m²/g




