Description
Nano Graphite Powder (100 nm) is a high-purity carbon nanomaterial featuring a nominal particle size of 100 nm and a guaranteed carbon purity of ≥99.9 wt%. Combining graphite's naturally layered crystalline structure with nanoscale particle characteristics, this fine powder offers excellent electrical conductivity, thermal conductivity, solid lubrication properties, and chemical stability.
Produced under controlled processing and purification conditions, this Nano & Ultra High Purity (UHP) Grade Graphite Powder features low metallic impurity levels and consistent material quality, making it suitable for advanced material research and specialized industrial formulations.
Its fine particle structure and versatile carbon properties make it a valuable functional material for conductive composites, battery electrode formulations, lubricants, thermal management systems, and protective coatings.
> Product Identification:
Product Name: Nano Graphite Powder
Chemical Name: Graphite (Carbon)
CAS No.: 7782-42-5
EC No.: 231-955-3
Chemical Formula: C
Atomic Weight: 12.01
Particle Size: 100 nm (Nominal)
Grade: Nano & Ultra High Purity (UHP)
Standard: Enterprise Standard
> Specification:
Grade: Nano & Ultra High Purity (UHP)
Physical & Chemical Properties:
Appearance: Black fine powder
Carbon Purity: ≥99.9 wt%
Particle Size: 100 nm (Nominal)
Impurity Limits:
Fe (Iron): ≤20 ppm
Al (Aluminum): ≤10 ppm
Ca (Calcium): ≤10 ppm
Mg (Magnesium): ≤10 ppm
Na (Sodium): ≤10 ppm
K (Potassium): ≤5 ppm
Ni (Nickel): ≤5 ppm
Cr (Chromium): ≤5 ppm
Cu (Copper): ≤10 ppm
Note: Specifications represent proposed enterprise quality limits. Actual batch results are provided in the Certificate of Analysis (COA).
1) High Carbon Purity (≥99.9%)
Manufactured with controlled metallic impurity levels to support consistent performance in advanced material formulations.
2) 100 nm Nanoscale Particle Size
Fine graphite particles provide a large surface-to-volume ratio, making the material suitable for functional composites and specialized coatings.
3) Excellent Electrical Conductivity
Graphite's conductive carbon structure supports applications in battery electrodes, conductive polymers, and electronic materials.
4) High Thermal Conductivity
The intrinsic thermal properties of graphite make it useful in heat-dissipation composites and thermal management systems.
5) Solid Lubrication Properties
Its layered crystalline structure provides low-friction characteristics suitable for lubricants and wear-resistant materials.
6) Chemical & Thermal Stability
Offers good chemical stability and thermal resistance under suitable processing and operating conditions.
7) Versatile Formulation Compatibility
Can be incorporated into polymers, ceramics, coatings, and other advanced material systems using appropriate dispersion techniques.
1) Battery & Energy Storage Materials
• Conductive additives for battery electrodes
• Lithium-ion battery material research
• Carbon-based energy storage composites
• Experimental electrochemical systems
2) Conductive Composites & Polymers
• Electrically conductive polymer composites
• Antistatic materials
• Conductive coatings and inks
• Carbon-filled engineering plastics
3) Lubricants & Tribological Materials
• Solid lubricant formulations
• Friction-reducing additives
• Wear-resistant coatings
• Industrial lubrication research
4) Thermal Management Materials
• Thermally conductive composites
• Heat-dissipation coatings
• Thermal interface material research
• Advanced electronic cooling systems
5) Advanced Ceramics & Coatings
• Carbon-containing ceramic composites
• Functional surface coatings
• Wear-resistant composite formulations
• Advanced engineering materials
6) Scientific Research & Development
• Nanostructured carbon material research
• Carbon-based composite development
• Surface modification studies
• Functional material formulation
Packaging:
Standard laboratory and industrial packaging; customized packaging available upon request.
Storage:
Store in a tightly sealed container in a cool, dry, and well-ventilated area. Protect from moisture, contamination, and direct sunlight.
Handling:
Avoid dust generation and inhalation. Use appropriate personal protective equipment and ventilation during handling.