Page 326 - Fundamentals of Ocean Renewable Energy Generating Electricity From The Sea
P. 326
308 Fundamentals of Ocean Renewable Energy
[41] International Electrotechnical Commission, IEC 62600-101 TS: marine energy—wave, tidal
and other water current converters—Part 101: wave energy resource assessment and charac-
terization, Technical Report, 2014.
[42] S.P. Neill, G. Iglesias, Impact of wave energy converter (WEC) array operation on nearshore
processes, in: The 4th International Conference on Ocean Energy: ICOE 2012, 2012.
[43] The SWAN Team, SWAN User Manual. SWAN Cycle III Version 40.91, Delft University of
Technology Technical Documentation, 2014, 123 pp.
[44] J. Abanades, D. Greaves, G. Iglesias, Wave farm impact on the beach profile: a case study,
Coast. Eng. 86 (2014) 36–44.
[45] H.C.M. Smith, C. Pearce, D.L. Millar, Further analysis of change in nearshore wave climate
due to an offshore wave farm: an enhanced case study for the Wave Hub site, Renew. Energy
40 (1) (2012) 51–64.
[46] K. Ruehl, A. Porter, C. Chartrand, H. Smith, G. Chang, J. Roberts, Development, verification
and application of the SNL-SWAN open source wave farm code, in: The 11th European Wave
and Tidal Energy Conference: EWTEC 2015, 2015.
[47] H.T. Özkan-Haller, M.C. Haller, J.C. McNatt, A. Porter, P. Lenee-Bluhm, Analyses of wave
scattering and absorption produced by WEC arrays: physical/numerical experiments and
model assessment, in: Marine Renewable Energy, Springer, 2017, pp. 71–97.
[48] V.S. Neary, M. Lawson, M. Previsic, A. Copping, K.C. Hallett, A. LaBonte, J. Rieks, D.
Murray, et al., Methodology for design and economic analysis of marine energy conversion
(MEC) technologies, Proceedings of the 2nd Marine Energy Technology Symposium (METS),
April 15–18, 2014, Seattle, WA, 2014.
[49] R. Springer, Framework for Project Development in the Renewable Energy Sector, National
Renewable Energy Laboratory (NREL), Golden, CO, 2013.
[50] S.K. Henkel, R.M. Suryan, B.A. Lagerquist, Marine renewable energy and environmental
interactions: baseline assessments of seabirds, marine mammals, sea turtles and benthic com-
munities on the Oregon shelf, in: Marine Renewable Energy Technology and Environmental
Interactions, Springer, 2014, pp. 93–110.
[51] S.P. Neill, P.E. Robins, I. Fairley, The impact of marine renewable energy extraction on
sediment dynamics, in: Marine Renewable Energy, Springer, 2017, pp. 279–304.
[52] I. Fairley, I. Masters, H. Karunarathna, The cumulative impact of tidal stream turbine arrays
on sediment transport in the Pentland Firth, Renew. Energy 80 (2015) 755–769.
[53] S.P. Neill, A.J. Elliott, M.R. Hashemi, A model of inter-annual variability in beach levels,
Cont. Shelf Res. 28 (14) (2008) 1769–1781.
[54] S.P. Neill, J.D. Scourse, The formation of headland/island sandbanks, Cont. Shelf Res. 29 (18)
(2009) 2167–2177.
[55] S.P. Neill, M.R. Hashemi, A.J. Elliott, An enhanced depth-averaged tidal model for morpho-
logical studies in the presence of rotary currents, Cont. Shelf Res. 27 (1) (2007) 82–102.
[56] C.L. Provost, Generation of overtides and compound tides (review), in: Nonlinear Tidal
Interactions in Shallow Water, 1991, pp. 269–295.
[57] M.N. Gallo, S.B. Vinzon, Generation of overtides and compound tides in Amazon estuary,
Ocean Dyn. 55 (2005) 441–448.
[58] P.E. Speer, D.G. Aubrey, C.T. Friedrichs, Nonlinear hydrodynamics of shallow tidal inlet/bay
systems, in: B.B. Parker (Ed.), Tidal Hydrodynamics, John Wiley & Sons, New York, 1991,
pp. 321–339.
[59] R.D. Pingree, D.K. Griffiths, Sand transport paths around the British Isles resulting from the
M 2 and M 4 tidal interactions, J. Mar. Biol. Assoc. UK 59 (1979) 497–513.

