The facility will be the first of its kind in the world and will use a Digital Displacement® regenerative hydraulic actuation system to reduce the energy requirements of fatigue testing.
This will enable more and faster impact-led academic research into fundamental engineering options for new materials technology and accelerated evaluation off stiff and slender structures.
Such a capability is critical to the success of this emerging composite materials technology for tidal blades and will accelerate the conversion of available tidal marine energy, which is currently under-exploited at a time of increasing national demand for energy.
Nationally, the facility will also underpin fundamental research in composite materials across all sectors, to be targeted at applications in high value manufacturing sectors such as aerospace, automotive, and civil engineering applications (e.g., structural health monitoring in bridges and buildings subject to ongoing fatigue under cyclic loading).
Academics will benefit by access to a state-of-the art accelerated fatigue testing facility, opening new research opportunities on fundamental materials and process topics.
Industry will benefit by reduced design risk from better testing data and by reduction of product testing time, within the product development cycle times needed in the renewable energy, aerospace, naval defence, marine and infrastructure sectors.