Active Materials & Manufacturing Clean Energy

MAXBlade – Maximising tidal energy generation through Blade Scaling & Advanced Digital Engineering

In plain English

AI plain-English summary

Tidal turbine blades will be scaled up by 70% in swept area to drive down the cost of tidal stream energy to €30 per megawatt-hour. Tidal power remains expensive and mechanically risky, with turbine blades failing prematurely because design, monitoring, and maintenance have never been tackled together for this harsh underwater environment. The MAXBlade project addresses that gap by treating blade reliability as a single engineering challenge rather than a set of disconnected problems. If successful, the project could make tidal energy cost-competitive with offshore wind, unlocking investment in a predictable, weather-independent renewable source. The team will also test recyclable thermoplastic resins for the blades, aiming to avoid the landfill problem that plagues wind turbine blades today. Over five and a half years, the project will design, build, and verify a small tidal array of at least two units (roughly 5 MW total), collecting 120,000 hours of rotor performance data from eight blades across four rotors. That data should give developers and insurers the confidence to fund larger commercial arrays, potentially reshaping the economics of tidal stream energy.

View original technical description
The MAXBlade project will specifically focus on delivering a 70% increase in rotor swept area of the technology by addressing design, reliability, condition monitoring, maintenance and control issues relating to tidal turbine blades. All of these issues have to date been insufficiently addressed for tidal turbine blades and need to be holistically tackled to reach a site-averaged €30/MWh cost reduction in tidal stream energy, while maturing the technology to address barriers around investment attractiveness. The project also anticipates significant challenges and expected legislative requirements around applying circular economy principles to tidal stream turbine blades in pursuit of a net zero generation sector. With a close interface between blade design and testing activities, the project addresses a comprehensive circular economy roadmap for tidal turbine blades, including advancing the potential of recyclable thermoplastic resins for use in the composite blades. The project also progresses initiatives to ensure that the European composite sectors become the international leader in tidal blade manufacture through knowledge transfer, practical engagement in the blade production design and identifying and addressing barriers to increasing European supplier capacity. The project will consist of a 2-year design and development phase, an 18- month build, followed by a 2-year performance verification through the build of a tidal array of at least two units (c. 5MW), ensuring that 8 blades (4 rotors) are tested providing cumulatively 120,000 hours of rotor performance data

View the original record at the funder ↗

Related Research

Grants with similar aims, by meaning.

Maximising tidal energy generation through Blade Scaling & Advanced Digital Engineering - MAXBlades
Maximising tidal energy generation through Blade Scaling & Advanced Digital Engineering
Designcraft Tidal Turbine Blade Concept
New generation of offshore turbine blades with intelligent architectures of hybrid, nano-enabled multi-materials via advanced manufacturing
Basic Research phase of Combined Lift-Momentum-Reversal Turbine for Tidal Stream

Original classification

EU-Funded

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.