ROMEO (2017-2022) developed O&M management platforms, IoT tools and condition monitoring systems for reducing the levelised cost of offshore wind.
SCOTTISHPOWER RENEWABLE ENERGY LIMITED
UK renewable utility (Iberdrola group) contributing operator expertise in offshore wind, HVDC transmission and asset O&M to large EU research consortia.
Their core work
ScottishPower Renewables is the UK renewable generation arm of the Iberdrola group, developing and operating one of Britain's largest portfolios of onshore and offshore wind farms. They bring real-world utility-scale operating experience to research consortia — particularly for offshore wind asset management, HVDC grid connections, and the practical challenges of integrating variable generation into transmission networks. Their role in H2020 has been that of an industrial end-user: feeding site data, operational requirements, and deployment constraints into research projects that would otherwise stay theoretical.
What they specialise in
PROMOTioN (2016-2020) addressed meshed HVDC grids, diode rectifier converters, circuit breakers and protection systems for North Sea offshore wind.
HPC4E (2015-2017) applied high-performance computing to wind energy alongside biomass fuels and exploration geophysics.
PROMOTioN explicitly covered grid regulation and financing of offshore transmission infrastructure.
ROMEO introduced IoT tools and condition monitoring systems into their operational toolkit.
How they've shifted over time
In the 2015-2017 window their H2020 engagement sat around computational methods applied broadly across wind, biomass and geophysics through HPC4E. From 2016 onward their focus narrowed sharply and deepened around offshore wind: first the transmission-side challenge of meshed HVDC grids in PROMOTioN, then the asset-side challenge of O&M, IoT and condition monitoring in ROMEO. The trajectory moves from generic energy computing toward owning the full offshore wind value chain from turbine health to grid connection.
They are clearly moving toward digitalised offshore wind operations and grid-integration expertise, which makes them a strong industrial anchor for consortia working on floating wind, HVDC interconnectors, or AI-driven asset management.
How they like to work
They do not coordinate — in all three H2020 projects they appear as a third party, contributing industrial input rather than leading scientific work. The consortia they join are sizeable, with roughly 70 distinct partners across 13 countries, suggesting they plug into large flagship projects rather than small bilateral teams. Working with them means accessing a utility that validates research against real operational constraints, but expect academic or technology partners to drive the project management.
They have cooperated with around 70 unique partner organizations across 13 countries, with a clear centre of gravity around North Sea and Atlantic offshore wind stakeholders. The network spans utilities, TSOs, turbine OEMs, universities and HPC centres.
What sets them apart
Unlike most H2020 energy partners, this is an actual large-scale wind farm operator — not a consultancy, university or technology vendor. They bring live operational data, real offshore sites, and the commercial perspective of a utility that will ultimately decide whether a research output gets deployed. For a consortium builder, they are the partner who answers the question "will this work on an actual wind farm, and would we buy it?"
Highlights from their portfolio
- PROMOTIONFlagship EU effort on meshed HVDC offshore transmission — addressed the transmission bottleneck that determines whether large-scale North Sea offshore wind is actually deliverable.
- ROMEOIndustrial-scale effort to cut offshore wind O&M costs using IoT and condition monitoring, directly aligned with ScottishPower Renewables' own cost-reduction agenda.
- HPC4EUnusual cross-over project pairing wind energy with biomass fuels and exploration geophysics under a shared HPC framing.