SciTransfer
Organization

MTU AERO ENGINES AG

Germany's leading aero engine manufacturer, bringing combustion, aeromechanics, and next-generation propulsion expertise to European aviation research.

Large industrial companytransportDE
H2020 projects
12
As coordinator
1
Total EC funding
€17.7M
Unique partners
128
What they do

Their core work

MTU Aero Engines is Germany's leading aircraft engine manufacturer, specializing in the design, development, and manufacturing of commercial and military aero engine components — particularly low-pressure turbines, high-pressure compressors, and turbine center frames. In H2020 projects, they contribute deep expertise in combustion technology, aeromechanics, alternative fuel compatibility, and next-generation propulsion architectures including hybrid electric systems. They also bring industrial-grade capabilities in materials modelling, computational design optimization, and noise/emissions reduction for aviation.

Core expertise

What they specialise in

Aero engine combustion and emissionsprimary
5 projects

Core focus across SOPRANO (soot/radiation in combustors), ENG GAM 2018 (engines/combustion), SENECA (supersonic emissions), ULTIMATE (ultra-low emission turbines), and GAM-2020-ENG.

2 projects

ARIAS focused specifically on flutter, forced response, and aeromechanical solutions; TurboNoiseBB addressed turbomachinery noise prediction.

Alternative fuels and propulsion architecturessecondary
3 projects

JETSCREEN investigated jet fuel screening and alternative fuel compatibility; IMOTHEP matured hybrid electric propulsion; CENTRELINE validated fuselage wake-filling propulsion.

Computational design and materials modellingsecondary
2 projects

MOTOR applied isogeometric analysis and multi-objective optimization to fluid energy machines; MarketPlace developed an integrated computational materials engineering platform.

Supersonic and next-generation aircraft systemsemerging
2 projects

SENECA addressed supersonic aircraft noise and emissions; ULTIMATE explored radical powerplant technology for mid-century aircraft.

Noise reduction in aviationsecondary
2 projects

TurboNoiseBB developed turbomachinery noise prediction models; SENECA addressed landing and take-off noise for supersonic aircraft.

Evolution & trajectory

How they've shifted over time

Early focus
Design optimization and low-emission engines
Recent focus
Hybrid electric and supersonic propulsion

In the early H2020 period (2015–2018), MTU focused on computational design optimization, fluid energy machine modelling, and foundational low-emission engine research — projects like MOTOR and ULTIMATE reflect a focus on design tools and radical powerplant concepts. From 2018 onward, the emphasis shifted toward real-world engine demonstrators (the large GAM projects), hybrid electric propulsion (IMOTHEP), materials modelling platforms (MarketPlace), and supersonic aircraft challenges (SENECA). The trajectory shows a clear move from design methodology and component research toward integrated propulsion system architecture and next-generation aircraft configurations.

MTU is positioning itself at the intersection of sustainable aviation (hybrid electric, alternative fuels) and advanced aircraft configurations (supersonic), making them a key partner for next-generation propulsion research.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European20 countries collaborated

MTU operates almost exclusively as a participant (11 of 12 projects), contributing specialized industrial expertise to large research consortia rather than leading them — their single coordinator role was on ENG GAM 2018, a major Clean Sky 2 engine demonstrator. With 128 unique partners across 20 countries, they maintain a broad and diverse network, typical of a large Tier 1 aerospace supplier that plugs into many different research teams. Their consistent participant role suggests they are a sought-after industrial end-user whose real-world engine expertise grounds academic research in practical application.

MTU has collaborated with 128 unique partners across 20 countries, reflecting a pan-European aerospace research network. Their partnerships span the full range from universities and research institutes to other major aerospace OEMs, positioning them as a well-connected node in Europe's aviation innovation ecosystem.

Why partner with them

What sets them apart

MTU is one of Europe's few independent aero engine OEMs with full lifecycle capability — from research through production to MRO (maintenance, repair, overhaul). Unlike universities or research institutes, they bring direct manufacturing feedback into R&D projects, ensuring research translates into producible engine components. Their dual involvement in both Clean Sky 2 demonstrators (EUR 15M+ combined) and exploratory research (supersonic, hybrid electric) means they bridge near-term engine programs and long-term aviation decarbonization.

Notable projects

Highlights from their portfolio

  • GAM-2020-ENG
    Largest single EC contribution (EUR 8.3M) — a major Clean Sky 2 engine demonstrator program reflecting MTU's role in Europe's flagship aviation R&D initiative.
  • ENG GAM 2018
    MTU's only coordinator role (EUR 7.2M) — their willingness to lead this large engine demonstrator signals deep ownership of combustion and engine technology.
  • IMOTHEP
    Investigates hybrid electric propulsion architectures for regional and medium-range aircraft — positions MTU at the forefront of aviation's electrification transition.
Cross-sector capabilities
Manufacturing — advanced materials, powder technology, and computational materials engineeringEnergy — waste heat recovery and thermal management systemsDigital — materials modelling marketplaces and integrated computational engineeringEnvironment — combustion emissions reduction and noise abatement
Analysis note: Strong profile supported by 12 projects with clear thematic coherence. The two large GAM demonstrator projects (combined EUR 15.4M) dominate the funding picture and reflect Clean Sky 2 participation, which follows a different dynamic than standard collaborative RIA projects. Keyword data for several mid-period projects (SOPRANO, TurboNoiseBB, CENTRELINE) was sparse, slightly limiting the evolution analysis.