ARCTIC and PROBATE both focused on advanced bearing materials, coatings, and thermal modelling for aero-engine applications.
SKF BV
Global bearing manufacturer contributing advanced rolling bearing R&D for aero-engines and marine renewable energy turbines in EU consortia.
Their core work
SKF is a global leader in bearings, seals, and lubrication systems, and their H2020 involvement reflects their deep expertise in advanced bearing technologies for demanding applications. They develop high-performance rolling bearings for aerospace engines — working on materials like ceramic rolling elements, carburized steel, and polymer cages — as well as bearing solutions for marine renewable energy turbines. Their R&D contributions focus on extending bearing life, reducing power loss, and enabling reliable operation in extreme conditions such as aero-engines and tidal energy arrays.
What they specialise in
ARCTIC covered ceramic elements, carburized steel, powder metallurgy and surface engineering; PROBATE extended this to polymer cages and coatings.
EnFAIT and FORWARD-2030 both involve tidal stream turbines where SKF contributes bearing expertise for marine conditions.
EnSO project addressed autonomous micro energy sources and IoT form factors, likely related to condition monitoring sensors.
EVE project on integrated active chassis systems for ground vehicles, a natural fit for SKF's automotive bearing portfolio.
How they've shifted over time
SKF's early H2020 work (2015–2017) was broad, spanning automotive chassis systems, IoT energy harvesting, and foundational bearing material science — steel types, powder metallurgy, and fatigue analysis. From 2017 onward, their focus sharpened into two clear tracks: advanced aero-engine bearings (with emphasis on thermal modelling, CFD simulation, and composite cages) and marine renewable energy, particularly tidal turbines. The shift from materials research toward simulation-driven bearing design and clean energy applications signals a company aligning its R&D with decarbonization and digital engineering trends.
SKF is increasingly investing in bearing solutions for renewable energy turbines and simulation-based bearing design, making them a strong partner for projects at the intersection of mechanical engineering and clean energy.
How they like to work
SKF never coordinates H2020 projects — they consistently join as a participant or third party, contributing specialized industrial bearing expertise to research-led consortia. With 86 unique partners across 16 countries, they spread their collaborations widely rather than repeatedly partnering with the same groups. This pattern is typical of a large industrial company that provides real-world validation, testing infrastructure, and domain knowledge to academic and research-driven projects.
SKF has collaborated with 86 distinct partners across 16 countries, indicating a broad European network built through aerospace and energy consortia. Their partnerships span universities, research institutes, and OEMs rather than concentrating in any single geographic cluster.
What sets them apart
SKF brings something rare to EU consortia: they are one of the world's largest bearing manufacturers with direct ability to take research results from lab to product line. Unlike university partners who contribute theory, or SMEs who contribute niche components, SKF can validate bearing innovations against real aero-engine and turbine operating conditions and scale them commercially. For any project that involves rotating machinery — from jet engines to tidal turbines — SKF offers unmatched industrial credibility and testing capability.
Highlights from their portfolio
- ARCTICLargest funded project (EUR 591,980) spanning 6 years, covering a comprehensive range of advanced bearing technologies for aero-engines including new steel types, ceramic elements, and surface treatments.
- FORWARD-2030Most recent and longest project (2021–2027), targeting deployment of 2030MW of tidal energy — signals SKF's strategic commitment to marine renewables as a growth area.
- PROBATEComplements ARCTIC with focus on planet bearing design using CFD and thermal modelling, showing SKF's push toward simulation-driven engineering.