If you are a regional aircraft manufacturer dealing with strict carbon emission targets — this project developed a parallel hybrid-electric architecture that can reduce mission fuel burn by at least 30% compared to 2020 state-of-the-art aircraft.
Hydrogen-Electric Propulsion System for Low-Emission Regional Aircraft
Imagine a plane that uses a mix of a traditional engine and a hydrogen-powered electric motor, similar to how a hybrid car works. Instead of relying only on fuel, it uses fuel cells to generate electricity to help push the plane forward. This setup helps the aircraft fly cleaner and use much less fuel during its trip.
What needed solving
Regional aviation lacks a viable path to decarbonize quickly because full battery or hydrogen power is not yet mature for 100-seat aircraft. There is a critical need for an intermediate hybrid solution to meet 2035 environmental goals.
What was built
A design and validation plan for a >2MW parallel hybrid-electric propulsion system, including CDRs for thermal management, fuel cells, and gearboxes.
Who needs this
Who can put this to work
If you are an engine supplier dealing with the transition to zero-emission flight — this project developed a megawatt-class propulsion system ( > 2MW) integrating fuel cells and electrical drives for regional flights.
If you are a hydrogen provider dealing with the need for high-power aviation applications — this project developed the integration of liquid hydrogen (LH2) fuel cells into a flight-representative propulsion system.
Quick answers
What is the estimated cost or price of the system?
Based on available project data, there is no specific information regarding the unit cost or price of the propulsion system.
At what industrial scale is this technology being developed?
The project focuses on a megawatt-class system (> 2MW) designed for regional aircraft serving distances of 500 to 1000 km with capacities up to 100 seats.
How is the IP and licensing handled for these components?
Based on available project data, specific licensing terms are not mentioned, but the project is part of the Avio Aero and GE Aerospace technology portfolio.
When will this technology be available for commercial use?
The project targets an Entry into Service (EIS) by 2035.
How does this integrate with existing aircraft engines?
It uses a parallel hybrid configuration that integrates a motor/generator and power converters with Avio Aero’s Catalyst turboprop engine.
Who built it
The consortium is heavily industry-driven, with 13 industrial partners representing 59% of the 22 total members. Led by GE AVIO SRL, the group includes 4 SMEs and 9 research/university entities across 6 countries (CZ, DE, IT, PL, TR, UK), indicating a strong commercial push to move the technology from the lab to a product-representative state.
Contact GE AVIO SRL in Italy for partnership opportunities regarding the Catalyst engine hybrid integration.
Talk to the team behind this work.
Contact SciTransfer to identify potential sub-suppliers for the thermal management or power distribution modules of the AMBER system.