ETIP Ocean’s Steering Committee is composed of leading ocean energy companies, research organisations and other key stakeholders.
It’s role is to give ETIP Ocean strategic direction and advice on priorities.
Members of the Steering Committee
Ms Fiona Buckley (Chair)
Senior Expert and Project Manager ENGIE
France / Belgium
Mr Peter Frigaard
Associate Professor Aalborg University
Denmark
Mr Pedro Valverde
Engineer EDP
Portugal
Mr Francisco Garcia
Chief Executive Officer APPA Marina
Spain
Mr Joaquin Hernandez Brito
Chief Executive Officer PLOCAN
Spain
Mr Yago Torre-Enciso
Technical Director BiMEP
Spain
Mr Christopher Ridgewell
Chief Executive Officer AW-Energy
Finland
Mr Pierre Ingmarsson
Head Of Ocean Energy Business Development Research Institutes of Sweden
Sweden
Mr Michael Bullock
Director Renewable Risk Advisors
United Kingdom
Mr Yann-Hervé De Roeck
Executive Director France Energies Marines
France
Mr Demetrio Malara
Head of Marine Innovation ENEL Green Power
Italy
Ms Kimberley Harris
Communications & Coordination Manager DP Energy
Ireland
Mr Simon Forrest
Chief Executive Officer Nova Innovation
United Kingdom
Alternative members
Mr Patrik Möller
Chief Executive Officer CorPower Ocean
Sweden
Mr Gavin McPherson
Head Of Policy and Research Nova Innovation
United Kingdom
Mr Gary Connor
Engineering Director Nova Innovation
United Kingdom
Ocean energy technologies exploit the power of tides and waves to produce energy.
Oceans have huge potential as sources of renewable energy. Several technologies are under development to harness that energy to power human activity. Currently the most promising technologies with the largest resource in Europe are tidal stream and wave energy.
Tidal stream energy
Tidal currents are caused by the gravitational forces of the sun and the moon. A tidal stream moving fast enough for energy generation occurs at locations where water has to pass through a confined area such as islands or inlets. The tide comes in and out approximately twice a day.
Tidal stream devices generate electricity by turning the kinetic energy caused by the tidal stream into electricity, usually by the turning of blades around a central axis in a tidal turbine.
Since tidal stream energy production is not influenced by weather conditions but only by well-known cycles of the moon, sun and earth, it is predictable hundreds of years in advance.
Tidal stream technologies are approaching commercialisation, with the deployment of full-scale devices in real sea conditions, as well as an increasing number of pilot farms.
Image source: SIMEC Atlantis Energy
Horizontal axis tidal stream turbine
A horizontal axis tidal stream turbine generates electricity from the rotation of the blades around a horizontal axis when driven by the tidal stream water flow. They can be seabed mounted or floating. Most tidal stream generation has converged to this type of generator.
Image source: HydroQuest
Vertical axis tidal stream turbine
A vertical axis tidal stream turbine generates electricity from the rotation of the blades around a vertical axis when driven by the tidal stream water flow.
Image source: Minesto
Tidal kite
A tidal kite is attached to the seabed with a turbine attached below its ‘wing’, and ‘flies’ under water, catching the tidal stream with the main blade and turning a small horizontal axis turbine to generate electricity. Tidal kites can extract more energy from slower flows.
Wave energy
Waves are caused by the movement of the wind on the surface of the ocean. Wave energy is generated by converting the kinetic energy in the movement of the waves into electricity. This is done in many ways and there are multiple forms of wave energy converters. Wave energy may converge to several different designs, each tailored to extract energy most efficiently from different local conditions.
Wave energy can provide utility scale power production. It also has applications for remote islands replacing expensive and polluting diesel-powered production. Furthermore, wave energy can power offshore industries such as fish farms, and oil & gas platforms.
The most advanced device developers are now planning and building the first wave energy farms around Europe. These pilot farms will serve as a basis for commercialising wave energy technology.
Image source: AW-Energy
Point absorber
The point absorber is a floating structure that absorbs energy through the movement of the waves at the water’s surface
Image source: AW-Energy
Oscillating wave surge converter
The oscillating wave surge converter is usually mounted on the seabed in shallower water, and harnesses energy through an oscillating flap.
Image source: Mocean Energy
Hinged attenuator
The hinged attenuator floats on the water surface. It generates electricity based on the movement of the structure segments relative to one another due to the movement of the waves.
Image source: Ocean Energy Ltd
Oscillating water column
The oscillating water column is a partially submerged, hollow structure open to the sea water below the surface, trapping air above the water. The air is channelled through an air turbine.
Image source: Wello
Rotating mass
The rotating mass is a floating, unbalanced device. The movement due to the waves causes the unbalanced weight inside to move and generate electricity.
