NEWS

The term “graphene” is used for a broad range of carbon materials with very different structures, formulations, and performance profiles. For customers, the material name alone is therefore not enough. A meaningful evaluation requires clarity on four dimensions: layer count, morphology and flake geometry, formulation, and structure and surface chemistry.

Dry electrode manufacturing changes the requirements for conductive additives. Beyond conductivity, particle flow and calendering behavior can become critical factors for successful electrode production.

In established Li-ion chemistries, energy density is increasingly limited by inactive material. Learn how conductive additives influence active material share, electrode compression, and ultimately cell performance.

Current collector primers are among the thinnest layers inside a battery cell, yet they strongly influence conductivity and adhesion. Can the same functionality be achieved with significantly less material?

Most battery materials have a single function. eGraphene is being explored across cathodes, anodes, dry coating, current collector primers, and Li-metal interfaces—making it a potential platform material for battery design.

Lithium-metal batteries are often limited by what happens at the interface. Explore how ultra-thin carbon coatings can influence lithium deposition, contact stability, and next-generation battery architectures.