Individualize
Separate bundled CNT into discrete, high-aspect-ratio structures.
Conductive additive technology
Carbon nanotube battery additives.
Engineered CNT networks that support conductivity, structural stability, power, and longer battery life.
Why it matters
A connected network with less inactive material
High-aspect-ratio carbon nanotubes can create long conductive pathways through an electrode. BDS formulations are designed to make that theoretical advantage usable in real battery manufacturing.
Review original performance data →The BDS process
Turning carbon nanotubes into a usable performance network.
Protect
Maintain tube integrity and surface behavior through processing.
Formulate
Tailor the dispersion for the target chemistry and process.
Connect
Create conductive pathways through battery active material.
Explore the technology
Carbon nanotube solutions by application.
Technical FAQ
Carbon nanotube questions.
Why use carbon nanotubes in battery electrodes?
High-aspect-ratio CNT can create conductive pathways and mechanical reinforcement through active material, supporting power, charging, and cycle-life goals.
How is a CNT dispersion different from dry powder?
A formulated dispersion addresses bundling, wetting, dosing, and integration so manufacturers can use CNT performance more consistently in their process. While mitigating the safety concerns of raw CNT.
Which battery chemistries does BDS support?
BDS develops Molecular Rebar formulations for lithium-ion and lead-acid applications, with testing and integration support matched to the customer system.
Can BDS supply commercial volumes?
Yes. BDS supports 10 L jugs, 208 L drums, and 1,200 L totes for development through commercial-scale production.
Start a technical conversation
What should your next battery do better?
Bring us your chemistry, production process, and performance target.
Talk to technical sales →