EIROS developed erosion-resistant and anti-icing smart composites; FiberEUse tackled composite reuse and recycling; ELICAN addressed offshore substructures.
SIEMENS GAMESA RENEWABLE ENERGY INNOVATION & TECHNOLOGY S.L.
Wind energy OEM's R&D unit contributing industrial-scale validation in turbine materials, offshore structures, energy storage, and power electronics across EU consortia.
Their core work
Siemens Gamesa's R&D arm develops advanced materials, components, and digital systems for wind turbines — both onshore and offshore. Their work spans the full turbine lifecycle: from erosion-resistant composite blades and self-installing offshore foundations to power electronics, energy storage integration, and end-of-life composite recycling. They bring large-scale industrial wind energy manufacturing expertise into EU research consortia, serving as the industry validation partner that tests lab innovations under real operating conditions.
What they specialise in
ELICAN demonstrated self-installing telescopic offshore foundations; ROMEO developed O&M management platforms with IoT-based condition monitoring; WInspector created robotic blade inspection systems.
HIGREEW focused on green redox flow batteries with organic electrolytes; TALENT addressed batteries and decentralised energy management; both reflect wind-storage integration needs.
FASTAP developed advanced transformer technology with on-load tap changers for wind turbines; TALENT covered power electronics for energy transition.
MUSE GRIDS built multi-utility smart energy systems for local communities; TALENT addressed management of decentralised energy systems.
FiberEUse demonstrated circular economy value chains for fibre-reinforced composites; DigiPrime built digital platforms for cross-sectorial circular economy.
How they've shifted over time
In 2016–2019, Siemens Gamesa focused heavily on physical wind turbine hardware: offshore foundations (ELICAN), blade materials with anti-icing and self-healing properties (EIROS), and robotic inspection systems (WInspector). From 2019 onward, their focus shifted decisively toward energy systems integration — battery storage (HIGREEW), power electronics (TALENT, FASTAP), smart grids (MUSE GRIDS), and circular economy for end-of-life turbine components (DigiPrime). This mirrors the industry-wide pivot from "build more turbines" to "integrate wind into complex energy systems."
They are moving from turbine-centric R&D toward full energy system thinking — storage, grid flexibility, and component circularity — making them a strong partner for projects bridging wind energy with broader energy transition challenges.
How they like to work
Siemens Gamesa never coordinates H2020 projects — they consistently join as a participant or third party, contributing industrial-scale validation and testing infrastructure rather than project management. With 146 unique partners across 20 countries, they operate as a broadly networked industry partner rather than a tight-knit repeat collaborator. Their frequent third-party role (5 of 11 entries) suggests they often provide in-kind contributions, test facilities, or advisory input without taking on full consortium obligations.
Extensive European network spanning 146 unique partners across 20 countries, reflecting their position as a major wind energy OEM that academic and SME-led consortia seek out for industrial validation and market access.
What sets them apart
As one of the world's largest wind turbine manufacturers, Siemens Gamesa brings something most consortium partners cannot: the ability to test research outputs at industrial scale on real wind energy assets. Their dual presence as both participant and third party across diverse projects makes them an accessible entry point for researchers who need an OEM validation partner. Few organizations can bridge advanced materials research, energy storage, power electronics, and circular economy within a single wind energy value chain.
Highlights from their portfolio
- EIROSLargest funded project (EUR 728K) tackling the critical real-world problem of blade erosion and icing in harsh climates through smart self-healing composites.
- HIGREEWUnusual dual involvement as both participant and third party, signaling deep strategic interest in green redox flow battery technology for wind-storage integration.
- ELICANDemonstrated a self-installing telescopic offshore wind foundation — a radical cost-reduction approach eliminating the need for expensive crane vessels.