| Carbon Purity | Battery anode production | Industry Standard: 99.9% (ISO 13885) Our Base: 99.95% (▲▲) Our Advanced: 99.99% (▲▲▲) | Minimizes impurities for longer battery lifespan. Meets strict EV battery specs. | Higher purity increases production costs. |
| Thermal Conductivity | High-power EV batteries | Industry Standard: 180 W/m·K (ASTM C1114) Our Base: 220 W/m·K (▲▲) Our Advanced: 250 W/m·K (▲▲▲) | Enhances heat dissipation, reducing thermal runaway risk. (Equivalent to copper’s conductivity at 250 W/m·K) | Advanced variants may require specialized handling to avoid brittleness. |
| Graphite Type | Lithium-ion battery anodes | Industry Standard: Natural graphite (variable structure) Our Base/Advanced: Artificial graphite (uniform ASTM C775 structure) | Consistent microstructure ensures stable charge/discharge cycles. (▲▲▲ vs natural graphite) | Artificial production requires higher energy input. |
| Environmental Compliance | EU-regulated markets (France/Germany) | Industry Standard: No EPR compliance Our Base/Advanced: EPR-France/Germany certified (▲▲▲) | Avoids legal penalties and meets eco-packaging mandates. | Certification adds 5-8% to upfront costs. |
| Particle Size Uniformity | Battery slurry mixing | Industry Standard: 10-50 µm (broad range) Our Base: 10-30 µm (▲▲) Our Advanced: 5-20 µm (▲▲▲) | Reduces defects in electrode coating; improves energy density. (▲▲▲: 30% narrower range than standard) | Narrower particles may clog precision machinery. |
| Application Versatility | Custom battery chemistries | Industry Standard: General-purpose graphite Our Base: Optimized for Li-ion (ASTM D3951) Our Advanced: Tailored for solid-state batteries (▲▲▲) | Enables compatibility with next-gen battery tech. (▲▲▲: Passes JEVS-002 solid-state interface tests) | Advanced variants require R&D partnerships for integration. |