All four H2020 projects (ARCTIC, PROBATE, BEATTI, BrEATHE) center on bearing technologies for turboprop and turbofan engines.
SKF AEROENGINE FRANCE
SKF's French aerospace unit developing advanced rolling bearings, materials, and thermal models for next-generation aero-engine gearboxes.
Their core work
SKF Aeroengine France is the aerospace bearings division of SKF Group, specializing in the design, testing, and advanced material development of rolling bearings for aircraft turbine engines and gearboxes. Their work focuses on improving bearing performance through advanced materials (ceramics, specialty steels, polymer cages) and validated computational models for heat and load behavior. Within Clean Sky 2 and other EU aviation initiatives, they contribute deep expertise in bearing tribology, fatigue resistance, and thermal management for next-generation aero-engine powertrains.
What they specialise in
ARCTIC and PROBATE explored ceramic rolling elements, corrosion-resistant steels, carburized steels, powder metallurgy, and surface engineering for bearing components.
PROBATE and BrEATHE both addressed planet bearing architectures for high-efficiency aero-engine gearboxes.
PROBATE involved computational fluid dynamics, heat generation and transfer modelling; BrEATHE included test bench validation of bearing models.
PROBATE specifically investigated fibres reinforced polymer cages as a lightweight alternative in aero-engine bearings.
How they've shifted over time
In their earlier projects (2016–2017), SKF Aeroengine France concentrated on materials science — exploring ceramic rolling elements, corrosion-resistant and carburized steels, powder metallurgy, and surface engineering to extend bearing fatigue life. By 2019, the focus shifted toward system-level performance: high-capacity planet bearings for gearboxes, physical test bench validation, and confirming computational models against real hardware. This progression from component-level material research to integrated gearbox bearing systems reflects the aviation industry's move toward geared turbofan architectures.
They are moving from fundamental material research toward validated, high-load bearing systems for geared turbofan engines — expect future work in next-generation propulsion drivetrain components.
How they like to work
SKF Aeroengine France consistently joins projects as a specialist participant or third-party contributor, never as coordinator — a pattern typical for large industrial companies contributing proprietary technology within aviation consortia. With 6 unique partners across 6 countries from just 4 projects, they integrate into diverse European teams rather than relying on a fixed circle. Their role is that of an industrial technology provider bringing bearing know-how into broader engine development programs led by airframers or engine OEMs.
They have collaborated with 6 different partners across 6 European countries in their 4 projects, indicating broad integration into the Clean Sky 2 aviation supply chain rather than dependence on a single consortium cluster.
What sets them apart
As a division of SKF — the world's largest bearing manufacturer — they bring industrial-scale manufacturing knowledge and proprietary material science that few academic or SME partners can match. Their specific niche in aero-engine planet bearings for geared turbofan gearboxes positions them at the intersection of materials R&D and flight-critical hardware validation. For any consortium working on next-generation aircraft propulsion or power transmission, they offer a direct path from research prototype to production-grade bearing technology.
Highlights from their portfolio
- BrEATHELargest funded project (EUR 254,856), focused on high-capacity planet bearings for efficient gearboxes — represents their most mature, system-level contribution.
- ARCTICBroad materials exploration (ceramics, specialty steels, powder metallurgy, surface engineering) covering the widest range of bearing technologies across a single project.
- PROBATECombined advanced materials (ceramic elements, polymer cages) with computational modelling (CFD, heat transfer), bridging their materials expertise with simulation capabilities.