OxyBatt exists because the most valuable data is often trapped behind heat.
When sensors and electronics cannot be powered reliably,
monitoring becomes intermittent, expensive, or impossible.
OxyBatt brings rechargeable energy storage to high-temperature environments where conventional batteries cannot operate
Industrial assets increasingly depend on condition monitoring and predictive maintenance, but power remains the blocker in high-temperature zones. Cabling is expensive, retrofits are complex, and conventional batteries struggle in sustained heat.
OxyBatt is designed to enable autonomous sensor nodes in these environments. The goal is simple: make monitoring deployable where it previously required costly wiring or frequent replacement cycles.
Use Cases
Together with AEInnova, OxyBatt supports the development of industrial sensing solutions intended for harsh environments, where temperature and access constraints define what is possible.
Downhole tools operate in a combination of extreme temperature, pressure, vibration, and limited space. These constraints make power choices especially difficult: batteries become a weak link and servicing is expensive.
OxyBatt targets rechargeable high-temperature operation and supports packaging concepts aligned with cylindrical tool assemblies. The long-term direction is to make the battery an enabling subsystem in tools that demand compactness, resilience, and thermal endurance.
Gas turbine operators currently rely on secondary, external indicators to infer machine health because the extreme internal environment destroys standard sensors. This blind spot forces operators into a reactive stance: by the time an anomaly is detected externally, catastrophic component failure has often already occurred. This lack of visibility leads to massive repair costs, severe unplanned downtime, and highly inefficient, premature maintenance schedules.
OxyBatt enables a paradigm shift to true in operando condition-based maintenance. By providing stable, uncooled energy storage directly at the heat source, it powers autonomous sensing platforms deep inside the turbine chamber. Because the closed, isothermal environment makes energy harvesting impossible, OxyBatt is the critical enabler for continuous, real-time telemetry.
Some space missions are constrained less by propulsion and more by survival. Venus surface exploration is a well-known example: temperatures around 460 °C make conventional power systems impractical without heavy cooling solutions.
OxyBatt’s high-temperature design target aligns with this class of challenge. While space is a longer-term application, it is a powerful demonstration of what the technology is built to achieve: reliable rechargeable power in environments that are “too hot for batteries.”
OxyBatt is designed to be the power layer for high-temperature electronics and wireless monitoring. But wireless systems in extreme environments are never only a battery problem: sensors, electronics, packaging, antennas, and communication methods must all survive the same conditions.
We are actively seeking partners with capabilities in high-temperature electronics and harsh-environment system engineering. If you build sensors, high-temperature circuits, packaging solutions, antennas, or communication technologies intended for extreme environments, OxyBatt can become the power foundation that turns those components into autonomous systems.
