FM NIO
FM NIO:
Super Capacitor Treatment FM NIO is a high-purity Powdered Activated Carbon (PAC) produced exclusively for the demanding world of energy storage, including ultra-capacitors and advanced batteries. The material is meticulously engineered to serve as a high-performance electrode, with a vast, highly accessible surface area for electrochemical double-layer charge storage. Its unique microstructure, which boasts a BET surface area of over 1500 m 2 /g, provides an immense number of active sites for ion adsorption, which directly translates to a higher specific capacitance and energy density.
The precisely controlled particle size distribution and exceptionally low impurity levels are crucial for achieving low Equivalent Series Resistance (ESR) and ensuring a long cycle life for the final energy storage device.
Technical Evaluation & Competitive Advantage
Record-Breaking BET Surface Area: With a BET surface area exceeding 1500 m 2 /g, FM NIO offers a significantly larger active area for charge storage than typical carbons. This directly results in higher capacitance and power density for your ultra-capacitor devices.
Ultra-Low Ash Content: Impurities (ash) can lead to side reactions and degradation of the electrolyte, severely reducing the lifespan of an energy storage device. Our ash content of less than 3% is one of the lowest in the industry, ensuring maximum electrode stability and a longer cycle life.
Optimal Pore and Particle Distribution: FM NIO’s hierarchical pore structure is designed for both high surface area (micropores) and fast ion transport (meso/macropores), creating a perfect balance for high-power applications.
FM NIO – Advanced Carbon Materials for Energy Storage
Overview: FM NIO is a family of high-performance nano-engineered carbons designed for applications in energy storage, catalysis, and electronics. Derived from selected organic precursors and engineered through controlled activation and surface modification, FM NIO offers:
High surface area (>1500 m²/g) with tunable porosity (micro + meso balance).
Low ash, high purity carbon tailored for electrochemical stability.
Conductivity-enhanced structures for fast charge transport.
Custom surface functionality for compatibility with electrolytes (aqueous, organic, ionic liquids).
Core Models
Description: Ultrafine powdered activated carbon with sub-micron particle size and high surface area, engineered for slurry electrodes and coatings.
Technical Highlights:
Surface Area: 1500–1800 m²/g
Particle Size: d₅₀ < 15 µm
Ash Content: < 0.5%
Electrical Conductivity: Enhanced through partial graphitization
Use Cases:
Electrode slurry for supercapacitors
Conductive additives in Li-ion & Na-ion batteries
PEM fuel cell catalyst supports
Conductive coatings in electronics
Description: Granular form with engineered pore distribution, designed for fixed-bed electrode structures and redox flow batteries.
Technical Highlights:
Surface Area: 1000–1400 m²/g
Particle Size: 0.5–2 mm (controlled granules)
Pore Distribution: Balanced micro/meso ratio for ion transport
Mechanical Strength: High crush resistance
Use Cases:
Electrodes for redox flow batteries (vanadium, zinc-bromine, iron-air)
Capacitive deionization (CDI) cells
Gas diffusion electrodes
Pilot-scale packed electrode reactors
Description: Hybrid grade combining nano-activated carbon with graphene nanosheets for ultra-high conductivity and fast charge/discharge rates.
Technical Highlights:
Composite Surface Area: 1200–1500 m²/g
Conductivity: > 15 S/cm
Ash: < 0.3%
Morphology: 2D graphene sheets interlaced with porous carbon
Use Cases:
High-power supercapacitors (EDLC)
Hybrid energy storage devices (LIC, Na-ion capacitors)
Fuel cell electrodes with high catalytic turnover
Lightweight conductive fillers in composites
Description: Surface-functionalized nano-carbon tailored for catalyst support and advanced electrochemical reactions. Available in acidic, basic, and metal-doped variants.
Technical Highlights:
Tunable oxygen/nitrogen surface groups (2–8% O, 1–5% N)
Doped versions (Fe, Co, Ni, Mn) for ORR/OER catalysis
High dispersion capacity for noble metals (Pt, Pd, Au)
Particle Size: < 20 µm
Use Cases:
Catalyst support in PEM fuel cells
Metal-air battery cathodes
Electrocatalysts for CO₂ reduction, H₂ evolution
Sensors and biosensors requiring conductive carriers
Description: Premium electrode-specific nano-carbon optimized for supercapacitors and ultracapacitors, balancing surface area, conductivity, and pore size distribution.
Technical Highlights:
Surface Area: 1800–2200 m²/g
Specific Capacitance: > 300 F/g in organic electrolytes
Pore Size Distribution: Optimized mesopores (2–5 nm) for ion transport
Low ESR (Equivalent Series Resistance) in tested cells
Use Cases:
Commercial supercapacitor electrodes
Double-layer capacitors (EDLC)
Energy storage modules for automotive and grid applications
Rapid charge/discharge systems (UPS, hybrid power)
Model | Form | Surface Area (m²/g) | Key Advantage | Main Applications |
NIO-PAC | Powder (<15 µm) | 1500–1800 | High dispersion, conductive | Slurry electrodes, Li-ion, coatings |
NIO-GAC | Granular (0.5–2 mm) | 1000–1400 | Mechanical strength | Redox flow batteries, CDI |
NIO-GH | Graphene hybrid | 1200–1500 | High conductivity | Supercapacitors, composites |
NIO-Catalo | Functionalized PAC | 900–1300 | Surface chemistry tuning | Fuel cells, metal-air batteries |
NIO-UltraCap | Electrode grade powder | 1800–2200 | Maximum capacitance | Ultracapacitors, energy storage |