Recipient organisationOffshore Renewable Energy CatapultSource-published name: Offshore Renewable Energy Catapult
Funding£11.3M
PeriodAug 2009 — Sept 2013
In plain English
AI plain-English summary
A £10 million onshore testing facility in Blyth, Northumberland will let wave and tidal energy companies deliberately break their equipment indoors before risking it at sea. Testing marine energy devices in real ocean conditions is prohibitively expensive—a single failure at sea can cost millions in repairs, lost time, and hazardous emergency interventions. This financial risk has scared off investors and slowed the entire sector’s development. The NaREC facility solves that by providing a controlled environment where engineers can push turbine assemblies and wave-energy generators to failure, identify weaknesses, and redesign them cheaply on land. The facility can run three to eight major testing projects per year, each lasting one to six months. If successful, it will accelerate the development of reliable wave and tidal power technologies, reducing the cost and risk of moving from prototype to commercial-scale devices. There are no comparable testing facilities anywhere else in the world, and the UK is already a hub for marine energy development. The facility will also support ongoing cost-reduction engineering for commercial devices, helping keep the UK at the centre of a growing clean-energy industry.
View original technical description
The proposed investment at the New and Renewable Energy Centre (NaREC) in Blyth, Northumberland will allow the onshore testing and proving of critical components for marine renewables onshore at significantly lower cost, prior to deployment at sea. The NaREC marine testing facility will build on and utilise existing infrastructure at the centre to provide testing infrastructure for marine drive systems2 and other critical wave and tidal energy device components. This would provide a key facility for marine developers to test and prove designs/components onshore - improving their efficiency and reliability - before committing to costly and high risk testing and demonstration at sea. Testing in real marine conditions is necessarily expensive in terms of the costs of building large scale devices and deployment - and the cost of component failure, redesign or adjustment during testing are therefore very large. This is seen as a considerable risk by potential investors in the sector and by the utilities who will be the ultimate customers for these technologies. This has created significant funding difficulties for the sector and delayed its development. But this proposal will allow investment at the earlier stage, on land, to increase the reliability and likelihood of success of prototype tests in the water thereafter. This will reduce both costs and risk_s associated_ with the mechanical and electronic systems within a wave energy converter or tidal turbine used to convert wave or tidal energy into electricity. 2 I.e. the mechanical and electronic systems within a wave energy converter or tidal turbine used to convert wave or tidal energy into electricity. ERDF Project Initiation and Planning Form A v.03 April 2009 3 - . - deployed at the subsequent "nursery" stage and then at the full-scale prototype stage. The proposal will therefore lead to an acceleration of the development of the sector. The £10 million investment would be for a 3 MW testing system will allow reliability and "destruction testing"3 of tidal energy turbine assemblies and the energy conversion units (either hydraulic or linear electric generators) of wave energy devices. The key objectives of the project will be to deliver 3 specific objectives to create the facility by March 2011. l. Marine test stand development 2. Development of a marine measurement system 3. Development of marine simulation modelling software The investment would allow between three and eight major testing projects, each lasting between one and six months, to be carried out annually (on average around three months duration). In each project a number of tests would be completed in a controlled manner, allowing designers and operators to determine where improvements could be made in machine design and efficiency. This will reduce the level of failures in scale testing in marine conditions and avoid the costly and hazardous unplanned interventions in the field needed to correct them. The test facility would be run as a semi-commercial facility and a significant proportion of the users would be expected to be part-funded by a mixture of public sector project R&D funding (e.g. EU Framework Programmes, Carbon Trust, Technology Strategy Board, Energy Technologies Institute, Research Councils) alongside private investments. DECC anticipate that there will be a high demand for the facility once commissioned. There are no comparable testing facilities elsewhere in the world and the UK is already a focus for the development and testing of marine energy devices. The facility will allow developers to test and improve the reliability of their devices throughout the development process from medium scale prototypes through to fullscale commercial devices - at significantly lower cost and risk in comparison to sea testing. The facility will also be used for testing engineering changes in commercial scale devices aimed at cost reduction. This will ensure an ongoing customer base in the medium and longer term
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