The technology behind E‑Tractor is built around system-level decisions rather than component substitution. Architecture, energy flow, thermal behavior, and validation are treated as one integrated system.
Frame-integrated energy system
The battery is not a removable payload. It is part of the tractor.
E-Tractor uses a frame-integrated MegaModule battery, designed into the load-bearing structure of the machine. This improves stiffness, protects the battery in harsh agricultural environments, and removes the handling, logistics, and interface complexity of modular or swappable packs.
The result is efficient packaging, predictable thermal behavior, and a tractor engineered as a tractor — not as a container for batteries.
Scenario-based energy and thermal management
Energy and thermal limits are managed based on how the tractor is expected to work.
Instead of reacting to fixed thresholds, the system evaluates operating scenarios — load, duration, ambient conditions, and recovery opportunities — and plans power and thermal usage ahead of time.
This approach allows higher utilization of available energy and cooling capacity while maintaining component protection and consistent performance over long work cycles.
Autonomy to extend the working day
Autonomy is not about removing the driver. It is about extending productive hours.
E-Tractor uses autonomy to allow the machine to operate independently when conditions permit, enabling work to continue beyond the operator’s active hours. This increases daily utilization without increasing operator fatigue.
By combining autonomy with FMIS data, weather forecasts, and solar availability, the system supports decisions on when the tractor should work, charge, or stand down — always with the goal of getting the work done.
Modular architecture with high reuse
Not everything needs to be reinvented to electrify a tractor.
E-Tractor is built on a modular product architecture that maximizes reuse of proven components while enabling efficient packaging of batteries, power electronics, and thermal systems. Interfaces are clearly defined so subsystems can evolve without forcing a full redesign.
This balance reduces development risk, shortens industrialization timelines, and supports multiple variants from a common platform.