NanoGrafi SUPER C65 Conductive Carbon Black
NanoGrafi™ SUPER C65 is a premium conductive carbon black engineered as a high-performance additive for advanced electrochemical applications. Produced using an advanced manufacturing process by NanoChicago, this ultra-high-purity material combines a highly structured morphology with a low specific surface area, ensuring superior dispersion and uniform distribution throughout electrode slurries. Its graphitic composition delivers exceptional electrochemical stability, minimal moisture absorption, and enhanced resistance to chemical degradation. Designed to meet strict purity standards with extremely low metal contamination, it provides reliable processing, long-term operational stability, and outstanding performance in demanding electronic and energy storage applications.
Technical Properties
Absorption Stiffness Value 32 ml/5g
BET Surface Area 62 m²/g
Volatile Content Max. 0.15%
Ash Content Max. 0.025%
pH 10
CAS No 1333-86-4
Applications
Lithium-Ion Battery Electrodes: Used as a premium conductive additive in both cathode and anode formulations to create an efficient electrical network with low additive loading, significantly improving electrical conductivity.
Electrode Slurry Processing: Its optimized structure and low surface area provide excellent dispersion and homogeneous distribution within electrode slurries, minimizing particle agglomeration during production.
Energy Storage Open Circuit Voltage (OCV) Control: Helps reduce open circuit voltage (OCV) rejection during cell manufacturing, contributing to improved safety, consistency, and long-term performance of energy storage systems.
Conductive Plastics and Composites: Functions as a high-purity conductive additive in advanced polymer compounds, providing antistatic, static-dissipative, or electrically conductive properties while preserving the mechanical characteristics of the base material.
Advanced Supercapacitors: Incorporated into high-performance supercapacitor formulations to promote rapid electron transport and maximize power density through an optimized conductive carbon network.
