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8. Conclusion    Appl Energy 2017; 206:303-11. DOI:        Sihwa tidal power plant project. Ocean
                  10.1016/j.apenergy.2017.08.195.           Eng 2010; 37:454-63. DOI: 10.1016/j.
 Renewable sources in the ocean are at   systems for photovoltaic panels. Tech-  ALTAEE A.; CIPPOLINA, A. Modelling and   oceaneng.2010.01.015.
 different stages of development. Current-  nologies have been developed from pi-  optimization of modular system for power   BELLONI, C. S. K.; WILLDEN, R. H. J.;
                                                            HOULSBY, G. T. An investigation of ducted
                  generation from a salinity gradient. Renew
 ly, there is great interest and planning of   lot projects for regions little affected by   Energy, 2019; 141:139-47. DOI: 10.1016/j.  and open-centre tidal turbines employing
 projects in offshore wind farms in different   waves, but which will progressively in-  renene.2019.03.138.  CFD-embedded BEM. Renew Energy,
 countries, including Brazil. The conversion   corporate devices that minimize hydrody-  AVCI, A. H.; TUFA, R. A.; FONTANANOVA,   2017; 108:622-34. DOI: 10.1016/j.rene-
 of energy sources from sea water, apart   namic movements.  E.; DI PROFIO, G.; CURCIO, E. Reverse   ne.2016.10.048.
 from tidal dams, still requires the incorpora-  Renewable energies in the ocean have   Electrodialysis for energy production from   BUDAL, K.; FALNES, J. Interacting point
 tion of control and optimization techniques   also been considered as promising sourc-  natural river water and seawater. Energy,    absorbers with controlled motion.
                                                            Power from Sea Wave. London: Academic
                  2018; 165:512–21. DOI: 10.1016/j.ener-
 to achieve competitive costs that allow in-  es for the production of green hydrogen,   gy.2018.09.111.  Press, 1980. p. 381-99.
 corporation into the world energy matrix.  replacing fossil sources. Aspects associat-  AMANTE, C. EAKINS, B. Arc-minute global   BULL, D.; JENNE, D. S.; SMITH, C. S.; CO-
 Wave and tidal current energy sources   ed with the desalination of seawater, with   relief model: procedures, data sources and   PPING, A. E.; COPELAND, G. Levelized cost
 are the most promising considering different   the aid of wave energy, have also been   analysis. NOAA Technical Memorandum   of energy for a Backward Bent Duct Buoy.
 commercial projects, especially in Europe, to   considered, aiming at the competitiveness   NESDIS NGDC-24, 2018:24.  Int J Mar Energy, 2016, 16:220-34.  DOI:
 be operationalized in the coming years.  of the hydrogen produced.  ALAM, M. R. Nonlinear analysis of an   10.1016/j.ijome.2016.07.002.
                  actuated seafloor-mounted carpet for
                                                            CAMPOREALE, S. M.; FILIANOTI, P.; TOR-
 Offshore wind farms tend to incor-  Renewable sources in the ocean, con-  a high-performance waveenergy ex-  RESI, M. Performance of a Wells Turbine in
 porate converters from other renewable   sidering the enormous potential on the   traction. Proc R Soc A Math Phys Eng   an OWC Device in Comparison to Labora-
 sources, in hybrid systems that have   Brazilian coast, can serve as a complement   Sci, 2012; 468:3153-71. DOI:10.1098/  tory Tests. EWTEC, 2011. Proc 2011.
 made viable, for example, wave and cur-  to the Brazilian electricity matrix, increas-  rspa.2012.0193.  CARRELHAS, A. A. D.; GATO, L. M. C.;
 rent converters, through the use of com-  ingly reducing dependence on hydroelec-  ASSIS TAVARES, L. F. de; SHADMAN, M.;   HENRIQUES, J. C. C.; FALCÃO, A. F. O.;
 mon infrastructure.  tric plants. This will certainly contribute to   FREITAS, A. L. P. de; SILVA, C.; LANDAU, L.;   VARANDAS, J. Test results of a 30 kW
 In the case of Brazil, in addition to the     the country’s energy security, stabilizing   ESTEFEN, S. F. Assessment of the offshore   self-rectifying biradial air turbine-gene-
 wind, wave and tidal current energy, there   the price of electricity, and reducing the   wind technical potential for the Brazilian   rator prototype. Renew Sustain Energy
                  Southeast and South regions. Energy,
                                                            Rev, 2019; 109:187-98. DOI: 10.1016/j.
 is a relevant potential for taking advan-  risk of electricity shortages.  2020; 196:117097. DOI: 10.1016/j.ener-  rser.2019.04.008.
 tage of the ocean temperature gradient,   Finally, Brazil’s comparative advan-  gy.2020.117097.  CHEN, B.; SU, S.; VIOLA, I. M.; GREATED,
 which will enable a diversity of renewable   tage should be emphasized in terms of   ASSIS TAVARES, L. F. de.; SHADMAN, M.;   C. A. Numerical investigation of vertical-
 energy sources that are less susceptible to   the abundance of renewable resources in   FREITAS, A., L. P. de; ESTEFEN, S. F. Influen-  -axis tidal turbines with sinusoidal pitching
 changes caused by climate change.  the ocean and technologies that can be   ce of the WRF model and atmospheric   blades. Ocean Eng 2018; 155:75-87. DOI:
 In the ocean space, it is also possible   adapted from the vast experience in off-  reanalysis on the offshore wind resource   10.1016/j.oceaneng.2018.02.038.
                  potential and cost estimation: A case
                                                            CHAUDHARI, C. D.; WAGHMARE, S. A.;
 to see the use of solar energy in floating   shore oil and gas production.  study for Rio de Janeiro State. Energy,   KOTWAL, A. Numerical Analysis of Venturi
                  2022; 240:122767. DOI: 10.1016/j.ener-    Ducted Horizontal Axis Wind Turbine for
 References
                  gy.2021.122767.                           Efficient Power Generation. Int J Mech
                  AYDIN, H.; LEE, H. S.; KIM, H. J.; SHIN,   Eng Comput Appl, 2013; 1:90-3.
 AGGIDIS, G. A.; FEATHER, O. Tidal range   wave energy converter. Renew Energy,   S. K.; PARK, K. Off-design performance   COMH, SHADMAN M, AMIRI MM, SILVA
 turbines and generation on the Solway   2017; 114:766-74. DOI: 10.1016/j.rene-  analysis of a closed-cycle ocean thermal   C, ESTEFEN SF, LA ROVERE E. Environ-
 Firth. Renew Energy, 2012; 43:9-17. DOI:   ne.2017.07.089.  energy conversion system with solar ther-  mental impacts of offshore wind ins-
 10.1016/j.renene.2011.11.045.  ALTAEE, A.; ZHOU, J.; ALHATHAL A. A.;   mal preheating and superheating. Renew   tallation, operation and maintenance,
 ALBERT, A.; BERSELLI, G.; BRUZZONE,   ZARAGOZA, G. Pressure retarded osmosis   Energy, 2014; 72:154-63. DOI: 10.1016/j.  and decommissioning activities: A case
 L.; FANGHELLA, P. Mechanical design   process for power generation: Feasibility,   renene.2014.07.001.  study of Brazil. Renew Sustain Energy
 and simulation of an onshore four-bar   energy balance and controlling parameters.   BAE, Y. H.; KIM, K. O.; CHOI, B. H. Lake   Rev 2021;144:110994. doi:10.1016/j.


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