Five projects (ENG GAM 2018, GAM-2020-ENG, LPA GAM 2018) focused on engine ITD development and combustion within Clean Sky 2.
GE AEROSPACE POLAND SPOLKA Z OGRANICZONA ODPOWIEDZIALNOSCIA
Polish subsidiary of GE Aerospace providing aircraft engine combustion, simulation, and propulsion expertise to Clean Sky 2 demonstrator programs.
Their core work
GE Aerospace Poland is the Polish engineering arm of GE Aerospace (formerly GE Aviation), one of the world's largest aircraft engine manufacturers. In H2020, they contributed specialist engine design, combustion testing, and advanced simulation capabilities to Clean Sky 2 and related aviation research programs. Their work spans turbofan engine development, aerodynamic drag reduction through nano-functionalized riblet surfaces, and ice crystal ingestion modelling — all aimed at making next-generation aircraft engines cleaner and more efficient. They operate as a third-party contributor brought in by prime contractors who need their deep engine engineering expertise.
What they specialise in
ReSiSTant project developed super-hard riblet surfaces with nano functionalization to reduce turbulent friction on turbofan engines.
MUSIC-haic project built 3D multidisciplinary simulation tools for ice crystal ingestion at high altitude, continuing FP7 HAIC work.
GAM-2020-LPA and LPA GAM 2018 involved large-scale demonstration of innovative propulsion concepts, HLFC, fuselage and wing design.
How they've shifted over time
In the early period (2014–2019), GE Aerospace Poland focused on core engine combustion work and explored emerging surface technologies like nano-functionalized riblets for drag reduction on turbofan engines. By 2019–2024, the focus shifted toward large-scale aircraft demonstrators, advanced 3D numerical simulation tools, and integrated propulsion concepts — moving from component-level R&D to system-level demonstration and validation. This evolution mirrors the Clean Sky 2 program's own progression from technology development to full-scale demonstration phases.
Moving from component-level engine R&D toward integrated aircraft system demonstration, positioning them for Clean Aviation Joint Undertaking successor programs.
How they like to work
GE Aerospace Poland participates exclusively as a third party — they are brought into projects by lead partners who need their specific engine engineering capabilities, rather than applying directly to EU calls. With 113 unique consortium partners across 18 countries, they sit within a very broad network, reflecting GE Aerospace's position as a key supplier across the European aviation R&D ecosystem. This third-party-only model means they are a specialist resource called upon when deep propulsion or simulation expertise is needed.
Connected to 113 unique partners across 18 countries through Clean Sky 2 and related aviation programs, giving them one of the broadest collaboration networks in European aerospace R&D. Their reach spans major aviation OEMs, tier-1 suppliers, and research institutions across the EU.
What sets them apart
As the Polish subsidiary of a global aircraft engine OEM, GE Aerospace Poland brings industrial-scale propulsion engineering to EU research consortia — something few Polish organizations can offer. Their consistent third-party role across multiple Clean Sky 2 work packages means they provide proven, on-demand engine expertise without the overhead of consortium management. For anyone building an aviation consortium that needs real engine test data, combustion expertise, or access to GE's propulsion knowledge base, this is one of the most direct routes available in Central Europe.
Highlights from their portfolio
- MUSIC-haicTackled a critical aviation safety challenge — simulating ice crystal ingestion at high altitude — building directly on FP7 HAIC results with advanced 3D numerical tools.
- ReSiSTantCross-disciplinary work combining nanotechnology with aerodynamics to create super-hard riblet surfaces for drag reduction on turbofan engines.
- GAM-2020-LPALarge-scale demonstrator integrating innovative propulsion, hybrid laminar flow control, and advanced fuselage/wing design for next-generation passenger aircraft.