Conductive Carbon Black Powder 45 m²/g BET 400g ATOMFAIR®

$300.00

Institutional Procurement & Supply Compliance: As a verified US supplier, Atomfair accepts formal institutional Purchase Orders (POs), contract billing schedules, and custom procurement loops for university and national laboratories, and corporate R&D departments globally.

Commercial grade conductive carbon black powder, 45 m²/g BET, 100-200 nm, ≤0.1% moisture, 400g. CAS 1333-86-4. For battery slurries. Order now.

Description

Conductive Carbon Black Powder, 400g

COMMERCIAL GRADE · PRODUCTION

Product Overview

High-capacity vehicle and energy storage validation networks require robust percolation channels at reduced loading thresholds, and this premium conductive carbon black powder matrix supplies extreme electronic contact points across dense active layers. Engineered as a highly stable, low-impedance ultra low iron battery additive (Country of Origin: Belgium | CAS Number: 1333-86-4), the material exhibits a targeted 45 m²/g BET specific surface area combined with an optimized particle distribution range of 100 – 200 nm. This physical morphology profile simplifies interstitial filling actions during electrochemical slurry formulation sequences, improving electrolyte wetting paths without causing paste agglomeration trends. Fully validated to augment energy density, power delivery thresholds, and long-term cycling stability metrics, it eliminates processing errors during coin or pouch cell validation. This standard hardware component serves as the definitive reference baseline for academic research groups, pilot-scale formulation facilities, and automotive-grade battery testing workflows.

Technical Specifications

CHEMICAL & PHYSICAL PARAMETER TECHNICAL SPECIFICATION RATINGS
BET Specific Surface Area (SSA) 45 m²/g Calibrated Surface Matrix
Primary Crystallite Particle Sizing 100 – 200 nm Morphology Window
Adsorption Stiffness Value 36 mL/5g Matrix Volumetric Bound
Apparent Powder Bulk Density 160 kg/m&sub3; Spatial Envelope
Maximum Volatile Moisture Fraction ≤ 0.1% Internal Weight Limits
Volatile Hydrocarbon Mass Content ≤ 0.4% Carbon Loss Ceiling
Total Ash Residue Threshold ≤ 0.025% Weight Fraction (Evaluated @ 600 °C)
Macro Grit Content Restrictions < 2 ppm for Particles > 45 μm (325 Mesh) | ≤ 12 ppm for Particles > 20 μm (625 Mesh)
Suspension pH Factor Metric 7.0 Neutral Chemical Baseline
Elemental Impurity Fractions Iron (Fe) ≤ 2 ppm | Nickel (Ni) ≤ 1 ppm | Sulfur (S) ≤ 0.02%
Secondary Transition Metallic Traces Vanadium (V) < 1 ppm | Chromium (Cr) < 1 ppm | Copper (Cu) < 1 ppm
Trace Toluene Organic Extract ≤ 0.2% Weight Cut-off Bounds
Alternative Catalog Items Explore our complete component catalog for alternative volumetric capacities, high-conductivity polymer separators, aluminum-laminated protective packaging films, or multi-channel battery cycling systems.

Key Features & Advantages

  • Rigid Impurity Capping: Ultra-low iron (Fe) contamination held ≤2 ppm restricts chemical decomposition loops inside aggressive solvent formulations.
  • Calibrated Surface Geometry: Features a targeted 45 m²/g BET morphology to secure excellent electrical network dispersion at minimized loading ratios.
  • Streamlined Manufacturing Rheology: Requires no pre-dispersing or dispersing aids during blending, saving NMP solvent allocations and decreasing oven drying times.
  • Inert Protective Packaging Structure: Supplied inside air-tight laboratory containers nested within an anhydrous vacuum bag packaging framework to prevent ambient moisture hydration.

TECHNICAL COMPATIBILITY & CROSS-REFERENCE: This premium 45 m²/g carbon modifier is processed to meet strict laboratory-grade material metrics, exhibiting identical surface architecture and electrical contact networks to standard high-conductivity matrix powders. It functions as a highly reliable institutional alternative for research groups tracking high-current cell processing and thick electrode layer formulations, matching physical component performance standards seamlessly.
EXPERIMENTAL APPLICATION & SETUP GUIDE: Our conductive carbon black powder is optimized for high-precision validation loops. Due to its standard aggregate sizing and low grit accumulation metrics, it blends smoothly into active phase slurry mixtures. For instance, when compounding high mass-loading cathode or anode coatings, this modifier provides seamless incorporation during manual blade casting or automated roll-to-roll slitting configurations without demanding custom structural paste adjustment.
OPERATIONAL COMPLIANCE NOTICE: Prior to compounding the active liquid paste, bake the material in a laboratory oven at 150 °C – 200 °C to safely eliminate surface-adsorbed ambient moisture parameters. Keep storage vessels strictly sealed inside a low-humidity desiccated cleanroom space to insulate carbon networks from atmospheric contact. Our manufacturing chains conform fully with environmental verification tracing structures, and modules are processed through verified chemical logistics channels.

TAILORED SOLUTIONS FOR RESEARCH
Contact our engineering team for technical support or official institutional quotations.
EMAIL: INQUIRY@ATOMFAIR.COM
Manufacturer: PRODUCTION DIVISION · ADVANCED ENERGY STORAGE DIVISION
Brand: INDUSTRIAL TESTING HARDWARE
Specifications are representative and subject to change without notice. For the latest version and compliance certificates, contact official sales channel.

Store this carbon black powder in airtight containers under low humidity to preserve its ≤0.1% volatile moisture specification. Disperse thoroughly in compatible solvent-binder systems to prevent agglomeration and ensure uniform conductive percolation in battery slurries.

  • Moisture Control: Seal containers immediately after use and store in a desiccated environment to avoid moisture adsorption beyond specification.
  • Agglomeration Prevention: Use high-shear mixing or ball milling to break up soft agglomerates and achieve primary particle dispersion.
  • Electrolyte Compatibility: Verify that the carbon black is compatible with the chosen electrolyte system to prevent side reactions or sedimentation.

Proper dispersion of this carbon black is critical for achieving a uniform conductive network in electrode coatings. Follow these steps to minimize agglomeration and maximize electrochemical performance.

Required Equipment: High-shear mixer or planetary mixer, Vacuum degassing chamber, Analytical balance

  1. Weigh and Inspect
    Weigh the required amount of carbon black powder and inspect it for visible lumps or contamination before processing.
  2. Pre-disperse in Solvent
    Add the powder gradually to the solvent (e.g., NMP) under low-speed mixing to wet the surface and reduce dust.
  3. High-Shear Mixing
    Apply high-shear mixing at 5000–10000 rpm for 20–30 minutes to break down agglomerates and achieve a stable dispersion.
  4. Degas the Slurry
    Transfer the slurry to a vacuum degassing chamber and apply vacuum to remove entrapped air bubbles for 10–15 minutes.
  5. Combine with Binder
    Slowly incorporate the binder solution under continuous mixing to form a homogeneous electrode slurry.

How does the ultra-low iron content of 2 ppm in ATOMFAIR SUPER C45 impact battery performance compared to standard carbon blacks with higher iron levels?

The ultra-low iron (Fe) content of ≤2 ppm minimizes catalytic side reactions at the cathode, directly improving long-term cycling stability and reducing self-discharge. Standard carbon blacks with higher Fe impurities typically accelerate electrolyte decomposition, leading to capacity fade.

Is ATOMFAIR SUPER C45 suitable for use in both lithium-ion cathode and anode slurries with common PVDF binders and NMP solvents?

Yes, SUPER C45 is fully compatible with most electrolyte systems and is designed as an additive for both cathode and anode. Its neutral pH (7) and low moisture (0.1% max) ensure stable slurry rheology without adverse reactions with PVDF binders or NMP solvents.

What precautions are necessary when handling SUPER C45 conductive carbon black powder to prevent contamination and maintain its ultra-high purity?

To preserve the ultra-low metallic impurity levels (Fe ≤2 ppm, Ni/V/Cr/Cu ≤1 ppm each), use clean, dedicated equipment and avoid cross-contamination with other materials. Storage in a sealed, dry container at room temperature is required to maintain the <0.1% moisture specification.

Atomfair SUPER C45 offers ultra-low iron impurity and 45 m²/g BET surface area for efficient conductivity in lithium-ion electrodes, but its low bulk density (160 kg/m³) and submicron particle size (100–200 nm) demand careful dispersion and containment during processing.

Positive

  • Ultra-low iron impurity: Iron content ≤2 ppm minimizes catalytic decomposition of electrolyte and parasitic side reactions, enhancing cycling stability and safety.
  • High BET surface area: 45 m²/g specific surface area provides efficient electrical percolation at low loading levels, reducing overall electrode cost while maintaining conductivity.

Trade-offs

  • Low bulk density handling: Bulk density of 160 kg/m³ indicates a fluffy powder that requires careful dispersion and may lead to dusting; proper mixing protocols and dust control are needed.
  • Submicron particle size: Particle size of 100–200 nm increases surface reactivity and potential for airborne fines; handling under ventilation or in a glovebox is recommended to prevent inhalation and contamination.

Every advanced material, component, equipment, and instrument in our catalog is backed by rigorous testing. We maintain strict internal quality management frameworks and align with CE conformity metrics to deliver transparent, reproducible performance data via our public open-science repository.

To request raw batch performance data, submit formal vendor registration paperwork, or execute a fast-turnaround R&D manufacturing loop, contact us at inquiry@atomfair.com.

Item is dispatched under the Atomfair Shipping & Delivery Framework (Free worldwide shipping on orders over $59 USD). Return is governed by the Atomfair Return & Refund Policy (7-day technical return window).