Thermal Stability | Electric Vehicles (EVs), High-Heat Environments | Industry Standard: 150°C melt point (ASTM E726) Our Base: 180°C (▲) Our Advanced: 220°C (▲▲) | ▲▲ Prevents thermal runaway in extreme conditions (e.g., fast charging) Industry Standard: Adequate for standard consumer devices | Advanced version may require thicker electrode layers for balance |
Puncture Resistance | Power Tools, Industrial Batteries | Industry Standard: 300g force/cm² (ISO 14577) Our Base: 400g (▲) Our Advanced: 500g (▲▲) | ▲▲ Reduces risk of internal short circuits in rugged use cases | Base version sufficient for moderate applications |
Ionic Conductivity | Smartphones, Wearables | Industry Standard: 1.2 S/cm (IEC 62660-2) Our Base: 1.5 S/cm (▲) Our Advanced: 1.8 S/cm (▲▲) | ▲▲ Enables faster charge/discharge rates (e.g., 15-minute fast charging) Industry Standard: Meets basic consumer needs | Advanced may require specialized electrolyte compatibility |
Thickness | Portable Electronics, Medical Devices | Industry Standard: 25μm (ISO 3801) Our Base: 20μm (▲) Our Advanced: 15μm (▲▲) | ▲▲ Boosts energy density by 20% (ideal for compact devices) Industry Standard: Balances durability and performance | Thinner separators may require stricter manufacturing precision |
Porosity | Grid Storage, EV Batteries | Industry Standard: 45% (ASTM F316) Our Base: 50% (▲) Our Advanced: 55% (▲▲) | ▲▲ Enhances ion mobility for higher capacity (e.g., 20% longer EV range) | Base version optimal for cost-sensitive applications |
Chemical Stability | Aerospace, Military Systems | Industry Standard: Withstands 50+ exposures (ASTM D543) Our Base: 70+ (▲) Our Advanced: 100+ (▲▲) | ▲▲ Resists aggressive electrolytes in extreme environments (e.g., high-voltage batteries) | Advanced version may increase production costs |