We offer proprietary, industrial-grade hardware designed to bring laboratory-level electrochemical transparency to utility-scale Battery Energy Storage Systems (BESS). At the core of our product suite is an Online-EIS (Electrochemical Impedance Spectroscopy) sensor unit that integrates directly into stationary storage infrastructure. This hardware captures high-fidelity "internal fingerprints" of battery cells during active operation, providing the raw data necessary to shift State of Charge (SoC) accuracy from the 15% industry standard to a precise 2%. By measuring electrochemical signals at the source, our analytics & monitoring hardware identifies anomalies long before they manifest as thermal or voltage issues. This enables the most proactive Thermal Runaway (TR) prevention on the market while delivering granular insights into State of Health (SoH) and Remaining Useful Life (RUL). For asset owners and integrators operating in the Megawatt and Gigawatt range, this hardware is the essential "truth layer" required to safely unlock stranded capacity, optimize energy throughput, and significantly enhance asset P&L. While our current hardware is optimized for the rigorous demands of stationary storage, the technology is engineered for future scalability into high-performance electric mobility and the automated validation of second-life battery assets.

This software solution provides laboratory-grade electrochemical insights for utility-scale BESS assets in real-time. By leveraging advanced signal processing and predictive AI, the platform reduces State of Charge (SoC) estimation errors from the 15% industry standard down to just 2%, directly enabling operators to unlock stranded capacity and significantly improve their P&L. The comprehensive monitoring suite includes dedicated modules for State of Health (SoH) tracking, Remaining Useful Life (RUL) prediction, and proactive Thermal Runaway (TR) detection, ensuring both the financial performance and the operational safety of the storage portfolio. While the current focus is on maximizing the efficiency of stationary storage, the architecture is specifically designed for future scalability into electric mobility and the validation of second-life battery assets.