Silicon-dominant anode architecture
Engineered silicon composites rather than graphite blends with additives - structured to accommodate lithiation strain while maintaining electronic connectivity through cycling.
Early stage startup · Hiring
Ensonergy develops lithium-ion cells built on silicon-dominant anodes. Silicon stores roughly ten times more lithium per gram than graphite; our cell architecture aims to address the volumetric expansion and interfacial instability that have kept it out of commercial batteries.
The lattice lithiates as you scroll
01 · Technology
Silicon's theoretical specific capacity (~3,600 mAh/g) is nearly ten times that of graphite (372 mAh/g). Realizing it requires managing a ~300% volume change during lithiation - particle fracture, unstable SEI growth, and loss of cyclable lithium. Ensonergy's anode architecture and cell design are engineered around these failure modes.
Engineered silicon composites rather than graphite blends with additives - structured to accommodate lithiation strain while maintaining electronic connectivity through cycling.
Anode, electrolyte formulation, and cell design developed as one system to stabilize the SEI and preserve cyclable lithium at the full-cell level.
Electrodes designed for standard roll-to-roll coating and existing production lines, reducing scale-up risk.
Si-dominant composite, XX vol% first-cycle efficiency XX.X% areal capacity X.X mAh/cm²
Can be discussed under NDA with interested parties.
Theoretical specific capacity of silicon relative to graphite (~3,600 vs. 372 mAh/g).
Volume expansion of silicon at full lithiation - the failure mode our architecture is built to control.
Founded. In stealth while first-generation cells are validated in-house.
02 · Team
Ensonergy is scientists and engineers working directly on cell development. Early hires shape both the technology and the company.
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Direct responsibility for core technical decisions which allows for rapid career development.
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Hands-on work from materials synthesis to full-cell build and electrochemical validation.
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Work in various labs and environments, with freedom to find solutions to problems in unique ways.
03 · Open roles
Applications are reviewed directly by the founding team. Additional roles will be posted as development progresses.
Drive silicon-anode and full-cell research - materials and electrode development, electrochemical characterization, and failure analysis feeding directly into next-generation cell design.
Support day-to-day cell build and test - electrode preparation, coin- and pouch-cell assembly, cycler operation, and keeping the lab running cleanly and safely.
Applications and inquiries: careers@ensonergy.com
Collaboration and more information: info@ensonergy.com