Siting and selection for marine renewable projects

Authors

DOI:

https://doi.org/10.21703/0718-2813.2009.5.3680

Keywords:

te selection, wind, tidal and wave energy, constraints, renewables

Abstract

This paper looks at the issues to be addressed when determining optimum locations for the deployment of marine renewables. As the public perception of global warming and carbon emissions heightens, governments and authorities are forced to insert renewables into their overall generation mix. Clearly, reducing emissions is a good thing for the planet as a whole, but it also has the added advantage of increasing power-grid resilience through distributed sources of generation. Although constantly improving, in general, renewables are still economically marginal investments, so great care must be taken to select and site these devices so as to maximize their return on investment (ROI). We will discuss the three primary areas of marine renewable devices Wind, Wave and Tidal stream, and present the most important issues to be addressed when reviewing each. Particular attention is paid to wave energy devices as it is felt that these devices are currently in a particularly interesting, and relevant, phase of development. A selection of examples of each of the most significant and currently viable technologies is introduced for each of the areas, and for each of these devices, specific siting constraints are identified and discussed.

References

[1] Ocean Thermal Energy. (cited 2008/06/10) http://en.wikipedia.org/wiki/ocean_thermal_energy_conversion

[2] Długoleeki, P. Power generation by reverse electrodialysis (cited 2008/10/08)

[3] BWEA, UK Offshore Wind Moving up a gear: 2007

[4] GWEA, Global Wind 2007 report 2007

[5] RePower 5MW Offshore Wind Turbine (cited 2008/09/10) http://www.repower.de/index.php?id=237&L=1

[6] Enercon 6MW Wind Turbine (cited 2008/09/10) http://www.enercon.de/www/en/nachrichten.nsf/41657424de23a0b8c1256ed10041a391/6230d2639aa384d9c125736e004679e2?OpenDocument

[7] Repower. First Wind Energy Turbine erected for Thornton Bank Offshore Wind Farm, in www.repower5m.com 2008

[8] EXX 4471 Marine Energy Test Centre, Stromness, Orkney 2001, IIR Wallingford

[9] Local Resource Assessment 2008 (cited 2008/09/10) [enlace sospechoso eliminado] [10] Falnes, J. (2003), Introductory lecture notes on Ocean Wave Energy: Lecture Notes [11] Small scale renewable energy systems for local energy supply (cited 2008/09/10) http://www.esru.strath.ac.uk/EandE/web_sites/00-01/small_scale_RE

[12] Wave Energy Technologies 2007 http://www.worldenergy.org/publications/survey_of_energy_resources_2007/wave_energy/7614.asp

[13] WaveGen. Islay Limpet Device 2008 (cited 2008/12/10) http://www.wavegen.co.uk/what_we_offer_limpet_islay.htm

[14] Wave Power University of Strathclyde (cited 2008/12/10) http://www.esru.strath.ac.uk/EandE/Web_sites/01-02/RE_info/wave%20power.htm

[15] DNV, Offshore Windfarms Ship Collision Analysis 2008, DNV Global Wind Energy [16] Duckers, L. (2004), Wave Energy, in Renewable Energy, G. Boyle (Ed.). Oxford University Press

[17] Norris, J.V. (2007), Update on EMEC activities, resource description, and characterisation of wave-induced velocities in a tidal flow. 7 European Wave and Tidal Energy Conference, Porto, Portugal

[18] SAS SAS Wave Hub & Wave Farm Policy 2006 (cited 2008/10/16) http://www.surfcore.co.uk/node/669

[19] Minerals Management Service, Wave Energy Potential on the US Outer Continental Shelf, U.S. Department of the Interior, Editor 2006

Downloads

Published

2009-06-01

Issue

Section

Articles

How to Cite

Siting and selection for marine renewable projects. (2009). Obras Y Proyectos, 5, 27-37. https://doi.org/10.21703/0718-2813.2009.5.3680