Good chemical stability, strong liquid absorption, good isolation performance, high mechanical strength, high voltage resistance.
Diaphragm material for electrochemical capacitors.
High Specific Surface Area (500-2000 m²/g): Porous architecture maximizes active sites for charge storage.
Superior Conductivity (10-100 S/cm): Carbon networks enable rapid electron transport with low internal resistance.
Flexibility/Thinness: Achieves 10-100 μm thickness with <5 mm bending radius, ideal for flexible electronics.
Eco-Compatibility: Biodegradable bio-based materials align with green energy initiatives.
Specific Capacitance: 200-500 F/g (EDLC-dominant), up to 1000+ F/g with pseudocapacitive materials.
Energy Density: 5-20 Wh/kg (exceeds conventional capacitors, approaching battery thresholds).
Power Density: 10-100 kW/kg (supports second-scale charge/discharge).
Cycling Stability: >100,000 cycles (≥80% capacity retention).
Flexible Electronics: Powers sensors in smart textiles and e-skin systems.
Micro-Energy Storage: Enables miniaturized power for IoT devices and medical implants.
Energy Buffering: Assists in EV regenerative braking and grid fluctuation mitigation.
Extreme Environments: Operates at -40~120°C for aerospace applications.