Ingenious
energy storage
Silicon is ten times more efficient than graphite
To drive mass EV adoption with extreme-fast charging (XFC), we reinvented the battery chemistry by replacing the traditional Li-ion graphite anode with our patented active-material nanoparticles that accelerate ion diffusion — for proven quick, safe and stable charging.
Our silicon is synthesized together with proprietary small-molecule organic compounds, resulting in a highly potent active material that withstands silicon's volume expansion during charging, issues of energy fade and rate-capability limitations — with enhanced safety.
Technology overview (PDF)
Data science that boosts development and accelerates results
We harness the power of AI to assess immense amounts of data and construct models at immense speed — expediting R&D, Engineering, and OEM customization, focusing our design of experiments and pointing us to the right material formulation. Development iterations that took months now take days.
AI-Charged
A charged mix of minds integrating multiple domains
To take batteries to the extreme, we apply an integrative approach at our very core — a multidisciplinary team covering the entire battery horizon: chemistry, organic chemistry, nano-particles, molecule design, quantum physics, materials, electro-chemistry and AI.
Patent family breakdown
Dozens of patents and applications protecting the full XFC stack — from the active material to the formation recipe.
Anodes
Cathodes
Electrolytes
Binders
Separators
Production processes
Systems
Charging — from hours,
to minutes, to seconds
| Charge rate | 10→80% in minutes |
|---|---|
| Cycle life | 2,400+ XFC |
| Energy density | 330 Wh/kg |
| Anode | Silicon-dominant · proprietary organic compounds |
| Formats | Prismatic · 46XX Cylindrical |
| Safety | UN 38.3 · multi-layer protection · OEM abuse programs |
| Manufacturing | Existing Li-ion lines · zero added CapEx |
Prismatic
46XXLet's talk XFC
Licensing, OEM programs and partnerships start with a conversation.
Contact us