SciTransfer
HECATE · Project

High-Power Electrical Distribution Systems for Next-Generation Hybrid Regional Aircraft

transportTestedTRL 5

Imagine trying to put a city's power grid inside a small plane without adding too much weight or causing electrical sparks. This work creates a smarter, lighter way to move massive amounts of electricity to the engines. It uses digital clones to test everything on a computer before building the real hardware.

By the numbers
500 kW
demonstrated architecture power
75%
target CO2 reduction per passenger kilometre
90%
target NOx reduction
2035
target year for new built hybrid aircraft
The business problem

What needed solving

Current regional aircraft rely on fuel-burning engines that fail to meet Green Deal emission targets. Existing electrical systems cannot safely handle the megawatt-level power and high voltage required for hybrid propulsion without excessive weight or safety risks.

The solution

What was built

A >500 kW electrical distribution architecture and associated technology bricks. This includes digital twins for design and a copper bird test facility for physical validation.

Audience

Who needs this

Regional aircraft manufacturersElectric propulsion system integratorsHigh-voltage aerospace component suppliersAviation certification consultants
Business applications

Who can put this to work

Aerospace Manufacturing
enterprise
Target: Regional Aircraft OEM

If you are a plane manufacturer dealing with high fuel burn and CO2 targets — this project developed a >500 kW electrical architecture that reduces fuel consumption. This allows for the design of a new hybrid regional aircraft by 2035.

Electrical Component Manufacturing
mid-size
Target: High-Voltage Hardware Supplier

If you are a component supplier dealing with electrical arcing and interference in flight — this project developed technology bricks to TRL5 that mitigate high voltage phenomena. This ensures your parts meet strict aviation safety standards.

Aviation Software
SME
Target: Digital Twin Service Provider

If you are a software firm dealing with expensive physical prototyping — this project developed digital twins for electrical distribution. This reduces the need for physical tests by simulating system behavior digitally.

Frequently asked

Quick answers

What is the estimated cost or price of the system?

Based on available project data, specific pricing or cost figures for the technology are not provided.

At what industrial scale is this technology being tested?

The project is demonstrating a >500 kW architecture in a copper bird test facility in 2025.

How is the IP or licensing handled for these technology bricks?

Based on available project data, the specific licensing terms are not mentioned, though it involves a consortium of 40 partners including 23 industry players.

What regulations must this technology satisfy?

The project is aligning with EASA and EUROCAE standards to ensure the electrical distribution is certifiable.

What is the timeline for commercial aircraft integration?

The roadmap targets exploitation in a new built Hybrid Electric Regional aircraft by 2035.

Consortium

Who built it

The project is heavily industry-driven with a 57% industry ratio, comprising 23 companies including 5 SMEs. With 40 partners across 11 countries, the consortium integrates the entire supply chain from aircraft OEMs to subsystem suppliers, ensuring that the research is grounded in commercial viability and manufacturing capability.

How to reach the team

Contact Collins Aerospace Ireland, Limited regarding high-voltage distribution TRL5 results.

Next steps

Talk to the team behind this work.

Contact us to identify partners for the CAJU Phase 2 flight demonstrations.

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