We leverage manufacturing technologies that already exist and have been scaled. We utilize existing battery roll-to-roll processing. Whatever we do is intended to work at scale.
Silicon anodes quickly degrade due to volume changes associated with lithiation. Cycle stability can be achieved by addressing both the internal and external effects of lithiation on silicon metal. Advano’s proprietary silicon and its material chemistries enable steady rate performance, high areal mass loading, and desired cycle stability.
We engineer our material to accommodate silicon swelling and we also engineer the crystal to enhance the operational voltage window of silicon, This enables batteries with enhanced cycle performance and superior charge-performance.
Comprehensive cell-system design – taking into account anode, cathode, and electrolyte – lets us safely maximize the performance of SiNP material.
Most silicon-based approaches use conventional techniques that disrupt existing supply chains. Our approach works with the systems currently adopted by the world's top manufacturers.
Our materials leverage a “surface functionalization” platform that enables not only 3D architecting and surface protection, but also compatibility with polymer and solid electrolyte.
Advano is building and optimizing large-pouch-cell batteries to demonstrate integration capabilities.
This will deliver on today’s step-change performance needs, while also providing a platform to rapidly demonstrate future technology.
Platform material technology — allows for continued innovation and improvement
Graphite replacement — engineered 3D nanostructure and enhanced voltage window, alleviates silicon side-effects,
Able to be scaled to ton/year scale which would support GWh battery production
Up to 3,000mAh/g, 10X greater than standard graphite anode material
Price parity with graphite, designed for applications sensitive to cost and/or volume
Works with conventional batteries, slurrying, and coating processes
High energy (70% silicon)
Medium energy (50% silicon)
High cyclability (15% silicon)
5mAh/cm2 achieved and pushing higher, 90%+ FCE (even for 70% Si-anodes), fast-charging capability (up to 4C)
Optimized formation, charging/discharging procedures
Compatible with state-of-art cathodes (i.e. NCM811, NCM622, HE-NCM) and liquid and solid-state electrolytes
High energy anode yields up to 40% increased energy density when paired with state of the art cathodes
Iterative electrolyte optimization using proprietary techniques as well as AI-assisted discovery/development
Able to be optimized for gravimetric and volumetric energy densities