Carbon Nanostructures

High-performance Carbon Nanostructures (CNS) for Next-Generation Lithium-ion Battery Performance.

ENERMAX® carbon nanostructures (CNS) are our most advanced conductive carbon additives for lithium-ion batteries, engineered to create efficient electron pathways and robust conductive networks within the electrode. Produced using our proprietary technology, ENERMAX CNS features a unique network of branched carbon nanotubes that enable high electrical conductivity at low loading levels and strong synergy with other conductive additives and electrode materials.

The unique crosslinked structure of ENERMAX® CNS creates efficient conductive pathways that deliver high electrical conductivity at low loading levels, helping improve electrode performance, reduce percolation thresholds, and enhance battery efficiency.

Nanostructure Networking for Enhanced Conductivity

The unique crosslinked structure of ENERMAX® CNS creates efficient conductive pathways that deliver high electrical conductivity at low loading levels, helping improve electrode performance, reduce percolation thresholds, and enhance battery efficiency.

Illustration showing carbon nanostructure applications in advanced technologies, including unmanned aerial vehicles (drones), data center infrastructure, and electric vehicle charging systems.
From various battery chemistries, including lithium iron phosphate (LFP), nickel manganese cobalt (NCM), and lithium cobalt oxide (LCO) cathodes, ENERMAX® CNS helps reduce electrode resistance, improving battery conductivity, power performance, and energy density.

Proven Across Cathode Applications

From various battery chemistries, including lithium iron phosphate (LFP), nickel manganese cobalt (NCM), and lithium cobalt oxide (LCO) cathodes, ENERMAX® CNS helps reduce electrode resistance, improving battery conductivity, power performance, and energy density.

Learn more about nanostructures
Illustration showing Cabot Corp unique carbon nanotubes​
Crosslinked, branched carbon nanotubes with a high aspect ratio, produced as a continuous conductive network through our proprietary manufacturing technology.

A Structure Like No Other Nanotube

Crosslinked, branched carbon nanotubes with a high aspect ratio, produced as a continuous conductive network through our proprietary manufacturing technology.

Graph showing higher conductivity at low loading
Covalently connected, branched carbon nanotubes create efficient conductive networks that deliver high electrical conductivity and lower interfacial resistance than SWCNT. ENERMAX® CNS can be blended effectively with our advanced conductive additives to further enhance performance.

Higher Conductivity at Low Loading

Covalently connected, branched carbon nanotubes create efficient conductive networks that deliver high electrical conductivity and lower interfacial resistance than SWCNT. ENERMAX® CNS can be blended effectively with our advanced conductive additives to further enhance performance.

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Battery Materials for Lithium-ion Battery Applications

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