Completed Clean Energy Engineering

Heavy Duty Dual Fuel Demonstrator Engine Achieving Future EU Emissions Compliance with 23% Carbon Reduction

In plain English

AI plain-English summary

A heavy-duty truck engine will burn a mix of diesel and gas to cut carbon emissions by 23% compared to current diesel-only trucks. The problem is that heavy trucks are a major source of transport CO₂, but battery-electric powertrains remain impractical for long-haul freight due to weight and range limits. Dual-fuel engines—running mostly on natural gas with a small diesel pilot injection—offer a lower-carbon alternative, but they leak unburned methane, a potent greenhouse gas, and struggle to meet tightening European emissions standards. This project tackles both issues. It develops a new combustion system called Premixed Micropilot Combustion to reduce methane slip, plus an exhaust after-treatment that oxidises methane at low temperatures. An advanced engine management system with gas-quality sensing ensures the engine stays compliant across real-world driving conditions. If successful, the demonstrator engine could offer a practical, cost-effective path to decarbonise long-haul trucking without waiting for battery or hydrogen infrastructure to mature. That would cut emissions from supply chains and freight logistics—systems that quietly move goods across continents every day—while keeping trucks on the road and within future EU emissions limits.

View original technical description
The aim is to develop new Heavy Duty Dual-Fuel (DF) combustion and after-treatment technologies to achieve future European emissions compliance with reduced carbon footprint at acceptable cost. The main deliverable will be a demonstration of 23% source-to-wheel carbon reduction relative to current diesel truck operation. The technical approach will involve the development and application of novel and innovative technology in three key areas: 1. Dual-Fuel Combustion Systems: New Premixed Micropilot Combustion (PMPC) systems and optimised engine component geometry will be developed to achieve significantly reduced methane emissions 2. Exhaust Aftertreatment: Innovative exhaust aftertreatment will be developed to enable the low- temperature oxidation of methane for compliance with future legislative testing procedures. 3. Integration of Control Systems: Innovative development of the Engine Management System (EMS) will be undertaken to ensure future emissions compliance with novel gas quality sensing capability.

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Collaborative R&D

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