Graphene-enhanced thermoplastics offer a superior solution for applications like batteries, fuel cells, and photovoltaics, where conductivity is essential. Unlike traditional fillers such as carbon black, which require high loading levels that compromise mechanical properties, graphene achieves conductivity with lower filler concentrations, preserving flexibility and strength

Graphene-based composites offer a novel approach for ESD (electrostatic discharge)-safe office furniture used in laboratory and cleanroom environments. Traditional materials like carbon black provide conductivity but often result in high hardness, reduced flexibility, and are limited to dark colors. Graphene achieves the necessary conductivity at lower filler levels, allowing for lighter color options and maintaining the mechanical properties of materials like polypropylene.

Graphene-based composites provide an effective solution for ESD-safe materials, such as nests and sockets in IC test fixtures. Unlike traditional fillers like carbon black, which require high concentrations and compromise flexibility, graphene achieves the needed conductivity at lower levels, maintaining material properties. Its high conductivity and environmental benefits make it ideal for protecting sensitive electronics from static buildup.

Graphene-based materials are ideal for high-performance seals and gaskets in electric vehicles (EVs) and other applications where conductivity is crucial. Unlike conventional insulative materials, graphene-enhanced composites enable reliable electrical grounding and protection against electromagnetic interference. They also maintain flexibility and water resistance, essential for sealing applications.

Graphene-based materials offer a new solution for antistatic and ESD shoe soles, ensuring safe dissipation of static electricity. Unlike carbon black, which requires high concentrations that increase hardness and limit color options, graphene achieves high conductivity with lower filler levels. This allows for softer, more flexible soles while maintaining effective electrostatic protection. Graphene also reduces issues like plasticizer migration and enhances the overall durability and comfort of the shoe.

The growing demand for electrification and wind power is driving the need for high-performance High and Medium Voltage cables, which typically have a copper or metallic foil earthing conductor. However, in some cases, metals can't be used, requiring a conductive polymeric layer with low resistance. This usually involves using a high loading of conductive filler like carbon black, which increases viscosity and results in harder, less flexible, and less water-resistant materials. By using a graphene masterbatch with high electrical properties, it's possible to achieve low volume resistivity with minimal filler, improving processability, flexibility, hardness, and water resistance.