Screen platforms, architectures and energy systems against the mission. Quantify range, payload, fuel, power, resilience and cost. Make the decision before committing to hardware.
Modern platforms are being asked to do more, with less. Electrical demand is rising, logistics tails are growing, and hybridisation creates coupled trade-offs across performance, endurance and cost.
Power and energy systems are still developed by hardware trial and error: build, test, rebuild. It takes years, and the result is still not optimal. We model the whole system in physics, from the component up to the formation, and find the optimum before any hardware is built.
From early concept sizing to procurement and operational energy planning.
Screen every architecture and solve for package, power and cost. Strongest when retrofitting a powertrain into an existing platform.
Speed and torque maps for every component in the power and energy system, resolving the losses a first-pass sizing cannot see.
Plan hybrid and electric platforms individually or in groups, scaling from sub-unit to formation, over time, distance and environment.
Design and size static, moveable, deployable and tactical microgrids, and procure the components that build them.
We are power and energy engineers. We overlay the physics on any mission requirement and return fuel, resilience, logistics and EW answers that stand up to scrutiny.
Signed studies from our power and energy engineers, each answering a platform decision against a defined mission: fuel, resilience, logistics and EW. Alongside them, the peer-reviewed physics the tools are built on.
We are a consortium of European and U.S. powertrain and defence specialists, serving defence acquisition authorities and prime contractors. Sizing the power and energy behind the electrified force, across platforms, microgrids and mobile energy systems.
