Poor dispersion
Agglomerates and local concentration variation can create inconsistent conductivity, weak spots, processing instability, and qualification risk.
Nanocarbon platform
The discrete CNT platform focuses on the interface between nanotube surface chemistry and the host matrix. By reducing bundled CNT behavior and matching functional groups to the target material system, Elect Nano can pursue more consistent electrical, electrostatic, RF, optical, and mechanical response in final parts or coatings.
Interactive process
Use the stage controls to step through Elect Nano discretization. The nanotube field shifts from bundled starting material toward separated, functionalized dCNTs ready for material integration.
Stage 01 / Clean
Catalysts and other impurities are washed from raw CNT feedstocks, leaving pristine, ultra-pure CNTs.
Functionalization chemistry
Hover or click a node to isolate the connections between material families, matrix targets, functional groups, reaction families, and terminal surface groups.
Dispersion demo


Agglomerates and local concentration variation can create inconsistent conductivity, weak spots, processing instability, and qualification risk.
A cleaner dispersion field supports more uniform property response across the material, part, coating, or sample geometry.
Application fit
These are starting points for technical conversations. Exact material selection depends on geometry, processing route, target properties, qualification requirements, and scale.
Discrete CNTs support Elect Nano ESD and EMI compound development across COC, MPPO, LCP, PPSU, TPU, TPC, and silicone platforms where molded parts need controlled resistance, shielding, RF loss, or optical response.
Carrier-matched dCNT masterbatches give compounding teams a concentrated route into engineering thermoplastics and elastomers without starting from unmanaged bundled CNT feedstock.
Functionalized dCNT dispersions can be matched to coating, adhesive, and specialty binder systems for conductive films, low-reflectance surfaces, bondline control, and electronics materials.
Water, solvent, or application-matched dispersion formats let teams screen surface chemistry, solids, rheology, and host compatibility before committing to a molded compound or coating product.
Development path
The development process keeps performance claims connected to application context and testable material formats.
Start with surface resistance, shielding, absorption, reflectance, thermal, mechanical, processing, and environmental requirements.
Match dCNT functionalization and carrier chemistry to the matrix, substrate, or final material format.
Prepare plaques, coupons, coated surfaces, dispersions, masterbatches, or application-specific trial lots.
Evaluate performance against customer test methods, geometry, process limits, and qualification needs.
Related technology
Move from the core dCNT platform into application-specific paths for ESD control, EMI shielding, RF absorption, and optical coatings. Each page connects material design choices to the performance windows customers evaluate in finished hardware.
Electrostatic performance
Discrete CNT-enabled ESD materials for uniform static control, clean molded surfaces, and precision electronics handling.
Open pageElectromagnetic management
Hard-level conductive nanocomposite shielding for suppressing signal transmission through housings, barriers, coatings, and molded RF hardware.
Open pageLoss and attenuation
Precision-dispersed dCNT, graphene, magnetic nanoparticle, and custom matrix systems for RF, microwave, mmWave, space, radar, telecom, and advanced electronics absorbers.
Open pageOptical control
Low-reflectance nanocarbon optical coatings for stray-light suppression, optical systems, aerospace, defense, and space-environment applications.
Open pageMaterial sample review
Share the performance target, process constraints, and use environment. Elect Nano can help define a practical evaluation plan.