What Makes Our
Anodes Different
From Agriculture to Energy Storage
RCBW™ is our proprietary process that transforms agricultural waste — specifically cattle manure — into high-capacity silicon-carbon composite anode material. Through thermal treatment, pulverization, and carbon coating, we create a naturally conductive matrix that enhances performance while reducing production emissions by up to 40%.
Key Performance Metrics:
~1500 mAh/g
95% capacity retention over 500 cycles
30–50% lower cost than mined silicon
Supports circular economy by upcycling waste
Ultra-Pure Silicon from Industrial Scrap
WWR™ captures the vast amount of silicon kerf waste generated during semiconductor wafer cutting. By reclaiming and refining this material through selective purification, carbon coating, and nano structuring, we produce a high-performance silicon anode with over 97% cycle retention — all while lowering material costs and waste.
Key Performance Metrics:
~1570 mAh/g
97% retention across 500+ cycles
High coulombic efficiency post-formation
Up to 50% cost reduction over virgin silicon
Validated through XRD and SEM characterization
Designed for Demanding Applications
ELSiON™ is our most advanced anode material — a nanostructured composite of silicon, silicon oxide, and carbon engineered to maximize performance while mitigating expansion stress. Encapsulated in a porous carbon matrix, ELSiON™ supports ultra-high energy density and stable operation across EVs, drones, defense, and ESS.
Key Performance Metrics:
~1750 mAh/g (gravimetric capacity)
99% initial coulombic efficiency
Advanced cycle stability and SEI control
Fully compatible with slurry coating & roll-to-roll systems
Designed for full cell integration
Electrolytes Designed for Silicon Anodes
To support the high activity and surface area of our advanced silicon materials, we’ve also developed proprietary electrolyte blends — including SSE-1224 and SSE-1225 — tailored to stabilize interfacial reactions, enhance conductivity, and prevent capacity fade.
Benefits:
Improved cycle retention in silicon-dense cells
Optimized for solid-state and semi-solid architectures
Fully integrable with Evermore anode platforms
From Waste to Power,
The Evermore Process
Waste Recovery
We collect silicon kerf, wafer scrap, and organic biomass like cattle manure.
Material Engineering
Through carbonization, coating, and purification, we synthesize advanced silicon-carbon composites optimized for energy density and cycle life.
Real-World Deployment
Our materials are integrated into EVs, drones, defense systems, and grid storage solutions — where performance and sustainability matter most.