This project will directly solve the challenge of measuring the fatigue performance of tidal turbine blades by generating, for the first time globally, statistically robust accelerated cyclic loading data for the lifetime of a fullscale tidal blade. This will be carried out at economic cost over a short timescale that will enable developer designs to be more quickly refined than is currently possible. Tidal turbines operate in a harsh marine environment, characterised by significant levels of flow unsteadiness, with tidal blades needing to withstand both deterministic (e.g. shear profile, tidal fluctuations) and stochastic (e.g. waves, turbulence) induced loads. The resulting fatigue loading is a significant cause of blade failure. Understanding these loads and their impact on blade structural performance is crucial in order to avoid premature failure and to increase confidence in tidal blade design, leading to reduced cost of energy. This project will model, define and apply these fatigue loads to develop a process for full-scale tidal blade testing.
Dr Jeffrey Steynor - Principal investigator
Jeff is an Electrical and Mechanical Engineer with a PhD in Optimising Ocean Energy Devices. He has over a decade of experimental expertise and facility operation, including the role of Project Engineer in the commissioning and operation of the FloWave Ocean Energy Research Facility from 2013-2017. Dr Jeffrey Steynor has led the development of the FASTBLADE facility design and development since 2017 and is responsible for the design, procurement, installation, commissioning and operation of FASTBLADE (www.fastblade.eng.ed.ac.uk)
Jeff also represents the UK in the development of the marine energy standards. He is on the project team for the TC114 IEC Marine energy - Wave, tidal and other water current converters
- IEC 62600-3: Measurement of mechanical loads
- IEC 62600-202 - Scale testing of tidal stream energy systems.
- Advisory Group (AG2) Publication alignment support