Dimension storage for the mission.
Battery capacity and power capability are defined from autonomy, load profile and required performance.
FET develops electric traction systems by integrating battery packs, power management, electric motors and control around the vehicle or mobile platform to be powered.

Useful electric traction requires the energy source, motor, power electronics, control strategy and mechanical interfaces to work as one system. FET develops these elements around the required duty cycle and operating environment.
Battery capacity and power capability are defined from autonomy, load profile and required performance.
Motor characteristics, gearing and mechanical interfaces are selected according to speed, torque and vehicle requirements.
Control electronics coordinate energy delivery, protection and the operating logic of the traction system.
FET can combine high-power storage with motors, BMS, control electronics and application interfaces in a complete traction architecture.

High-power battery packs configured for the voltage, current and autonomy required by the application.

Protection, monitoring and energy management coordinated with the traction duty cycle.

Motor and drive selection developed around torque, speed, efficiency and mechanical integration.

Command, supervision and application-specific control functions integrated into the complete system.
FET has already developed and realized high-power traction battery systems and uses this experience as a basis for broader electric traction integrations.
The same architecture can support mobile and distributed systems in which energy storage, propulsion and control must be coordinated as a single product.

For mobile or distributed systems with suitable exposed surfaces and operating profiles, photovoltaic charging can be integrated as an additional local energy source. It does not replace the traction battery, but can extend energy availability and reduce dependence on fixed charging infrastructure.

The traction solution is defined from the real vehicle or mobile platform rather than from a pre-selected battery or motor.
Load, speed, autonomy, operating time and environment.
Battery voltage, capacity, power and charging strategy.
Motor, drive, gearing and mechanical interfaces.
BMS, power management and vehicle/platform commands.
Physical integration and verification under representative use.
Configuration control and preparation for repeatable realization.
Application-specific electric platforms requiring custom storage and drive integration.
Mobile systems in which traction and command functions are integrated into a common architecture.
Traction architectures prepared to support higher-level autonomous or supervisory control.
Mobile equipment operating away from fixed infrastructure, optionally supported by local photovoltaic charging.
FET can evaluate the required mission profile, define storage and motor sizing, integrate control and develop the corresponding prototype and traction architecture.