PERSPECTIVE FOR ENERGY EXPLOITATION ALONG THE BRAZILIAN COAST
ICCE 2022
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How to Cite

PERSPECTIVE FOR ENERGY EXPLOITATION ALONG THE BRAZILIAN COAST. (2023). Coastal Engineering Proceedings, 37, papers.61. https://doi.org/10.9753/icce.v37.papers.61

Abstract

The constant need to supply the growing global energy demand, leads to an increase in the generation of greenhouse gases. To circumvent this problem, more and more alternative means of energy generation have been used to compose the energy grid. One of the alternatives, which in recent decades has received great attention from researchers, is the conversion of wave energy into electrical energy. In Brazil, studies have also gained momentum, and the possibility of implementing wave energy converters on the Brazilian coast is increasingly recognized. With this in mind, the present work aims to determine the regions on the Brazilian coast that are most capable of being explored through wave energy. For this, a simulation of 37 years of the Brazilian sea state, is used in conjunction with a multicriterial methodology, where the logistical and energetic conditions of the Brazilian coast are quantified. Subsequently, power matrices of 8 wave converters are used to quantify the theoretical potential generated in the improved locations. The results showed that, in energy terms, the South and Southeast regions of Brazil have the greatest potential. This factor also proved to be the cause of the presence of lower logistical indexes in these regions, when comparing them with the North and Northeast regions of Brazil. After parameterization of the indices, three zones of interest were observed on the Brazilian coast: Cabo Frio, Imbituba and São José do Norte. When applying the conversion matrices in these locations, average daily generation power between 1.5 and 230kW were observed, the largest being located in the Cabo Frio region, using the BHBA model of converter. Variability in energy production was also discussed, and it should be a primary factor in the choice of the convert model, as well as in its design. Finally, all results were consistent with previous work, however, the path to implementing a wave energy conversion site in Brazil is still long, and should be focused on optimizing devices for Brazilian waters.
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References

A. Babarit, J. Hals, M. J. Muliawan, A. Kurniawan, T. Moan, and J. Krokstad. Numerical benchmarking

study of a selection of wave energy converters. Renewable Energy, 41:44–63, 2012. ISSN 09601481.

doi: 10.1016/j.renene.2011.10.002. URL http://dx.doi.org/10.1016/j.renene.2011.10.002.

L. Cameron, R. Doherty, A. Henry, K. Doherty, J. V. Hoof, D. Kaye, D. Naylor, S. Bourdier, and T. Whittaker.

Design of the Next Generation of the OysterWave Energy Converter. In 3rd International Conference

on Ocean Energy, pages 119–128, Bilbao, 2010. ISBN 9781905040704.

A. Cornett. A global wave energy resource assessment. Sea Technology, (JULY 2008):1–9, 2008. ISSN

-3651.

R. L. Espindola and A. Maurı. Wave energy resource of Brazil : An analysis from 35 years of ERA-Interim

reanalysis data. PLoS ONE, 12:1–28, 2017. doi: 10.1371/journal.pone.0183501.

R. Guimarães, P. Oleinik, E. Kirinus, B. Lopes, T. Trombetta, andW. Marques. An overview of the Brazilian

continental shelf wave energy potential. Regional Studies in Marine Science, 25, 2019. ISSN 23524855.

doi: 10.1016/j.rsma.2018.100446.

IBGE. Sinopse do Censo 2010. Technical report, IBGE, Rio de Janeiro, 2010. URL https://

biblioteca.ibge.gov.br/index.php/biblioteca-catalogo?view=detalhes{&}id=249230.

IBGE. Anuário estatístico do Brasil. Technical report, IBGE, Rio de Janeiro, 2011. URL http://memoria.org.br/pub/9000/90000007r.pdf.

A. Pecher, J. P. Kofoed, J. Espedal, and S. Hagberg. Results of an Experimental Study of the Langlee

Wave Energy Converter. In Proceedings of the Twentieth International Offshore and Polar Engineering

Conference, volume 1, pages 877–885, Beijin, 2010. ISBN 9781880653777.

C. Pianca, P. L. F. Mazzini, and E. Siegle. Brazilian offshore wave climate based on NWW3 reanalysis.

Brazilian Journal of Oceanography, 58(1):53–70, 2010. ISSN 16798759. doi: 10.1590/

S1679-87592010000100006.

B. G. Reguero, I. J. Losada, and F. J. Méndez. A global wave power resource and its seasonal, interannual

and long-term variability. Applied Energy, 148:366–380, 2015. ISSN 03062619. doi:

1016/j.apenergy.2015.03.114. URL http://dx.doi.org/10.1016/j.apenergy.2015.03.114.

R. Shaw. Wave Energy: A Design Challenge. Halsted Press, New York, 1982. ISBN 0853123829.

J. Weber, F. Mouwen, A. Parish, and D. Robertson. Wavebob – Research & Development Network and

Tools in the Context of Systems Engineering. In 8th European Wave and Tidal Energy Conference,

pages 416–420, 2009. doi: 10.1080/1533290X.2017.1415242.

C. V. C. Weiss, R. Guanche, B. Ondiviela, O. F. Castellanos, and J. Juanes. Marine renewable energy

potential: A global perspective for offshore wind T and wave exploitation. Energy Conversion and

Management, 177(July):43–54, 2018. doi: 10.1016/j.enconman.2018.09.059.

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Copyright (c) 2023 Ricardo Cardoso Guimarães, Wiliam Correa Marques, Claudio Freitas Neves