Completed Clean Energy Engineering

E Van

In plain English

AI plain-English summary

A Ford Transit van will soon carry a new electric powertrain that could cut its energy use by up to a fifth compared to today’s best electric vans. This matters because electric vans and trucks currently waste significant energy through inefficient motors, single-speed transmissions, and power-hungry auxiliary systems such as pumps and fans. The project tackles all three at once: a next-generation permanent magnet motor paired with a multi-speed smart transmission, a central vehicle controller that coordinates everything, and redesigned high-voltage auxiliary components that slash their power draw from 4 kilowatts to just 1.2 kilowatts. Together, these subsystems are predicted to deliver a 15–20 percent improvement in overall vehicle energy efficiency on the standard NEDCL test cycle. If the consortium succeeds, the same architecture could scale to cars and heavy trucks, quietly improving the energy grid by reducing the electricity demand per mile for commercial fleets. For a delivery company running hundreds of vans, that translates into lower charging costs and longer range without bigger batteries. The project is applied engineering, not fundamental science—it aims to put a working, more efficient electric van on the road within the grant period.

View original technical description
This project requires a consortium approach for a systems-based development and management strategy to deliver an integrated electric vehicle (EV) architecture on a Ford Transit. However, the technology is equally applicable to cars and large trucks. This architecture and system design will develop a predicted 15-20% improvement in vehicle energy efficiency (vs current best in class electric vehicles). To achieve optimum system development and effective integration, the project is divided into 3 subsystems:- 1) The application of next generation, high efficiency permanent magnet motor and inverter technology, multi-speed smart transmission and dedicated central vehicle systems controller. 2) Development of smart high voltage auxillary components and subsystems. It is predicted that this architecture will reduce overall auxillary loads from 4kW to 1.2kW, realising an overall energy reduction improvement for a Transit operating on the legislative NEDCL cycle. 3) Centralisation and optimisation of the vehicle control system using an integrated systems engineering approach. This strategy is mandatory to the delivery of 1) and 2) above and will provide a small incremental increase (1-2%) in its own application

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Related Research

Grants with similar aims, by meaning.

Electric Propulsion Attachment for Vans EPAV
Lightweight Ultra Low Emissions Delivery Van
Vehicle Electrical Systems Integration (VESI)
Highly Efficient HV boosting for xEV
EDISON (Electric Drivetrain Integration by Simulation and OptimisatioN

Original classification

Collaborative R&D

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.