Characterized Materials
Material properties supported by available HRTEM, Raman, XRD, FTIR, EDS, and other analytical data.
Structure · Composition · Performance
Advanced materials for research & product development
Advanced material systems for electrochemistry, conductive and thermal composites, sensing, catalysis, coatings, energy storage, and emerging technologies.
Featured materials
Select a material to review product information, available quantities, and technical resources.
Materials backed by data
HeXalayer combines advanced-material development experience with analytical characterization to help researchers evaluate materials with greater confidence.
Material properties supported by available HRTEM, Raman, XRD, FTIR, EDS, and other analytical data.
Structure · Composition · Performance
Experience developing and evaluating materials for electrochemistry, conductive systems, composites, energy storage, and emerging technologies.
Research · Evaluation · Development
Research quantities for early evaluation, with custom quantities and bulk-supply discussions available for larger programs.
Samples · Custom quantities · Bulk supply
Available characterization
Conceptual visualization of rotationally misaligned multilayer graphene. Not shown to physical scale.
Research quantity
Sealed, labeled, and prepared for shipment with the selected quantity.
Material appearance
Representative product appearance. Actual texture may vary slightly by lot.
Turbostratic carbon material
HeXalayer’s turbostratic graphene consists of incommensurately stacked graphene layers with in-plane rotational angles of approximately 5° or greater. This rotational misalignment weakens interlayer van der Waals interactions and produces a multilayer carbon structure distinct from conventionally stacked graphite.
Potential R&D applications
Suitability depends on formulation, processing conditions, material specifications, and the requirements of the intended application.
Research involving conductive additives, inks, coatings, and polymer formulations.
Thermal-management, heat-dissipation, and functional composite research.
Printed electronics, strain sensing, functional devices, and electronic-material research.
Battery electrodes, supercapacitors, and other experimental electrochemical systems.
Material development, characterization, electrochemical evaluation, and process scale-up.
Research & program credibility
HeXalayer has advanced its material technologies through federal research programs, laboratory development, industry collaboration, and independent technical evaluation.
Phase I and Phase II support for graphene-material research, process development, and commercialization.
Phase I support for advanced battery-material development and electrochemical evaluation.
Experience working with universities, national laboratories, battery developers, and applied R&D organizations.
Recognition through technology competitions, accelerator programs, and advanced-material innovation initiatives.
Selected programs and organizations associated with HeXalayer’s development history.