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Abstract Caribbean area is considered a renewable energyhub when sustainable energy sources are considered. Renewable energy sources include solar, wind, hydropower, bioenergy, and geothermal energy. The PWRLINKCAR (Power Link Caribbean) project proposes the union of the electrical markets of Greater and Lesser Antilles for promoting the use of renewable energies. In this way, the integration of the electricity markets reduces energy stocks and electricity prices. Energy link geographical analysis is performed regarding the present infrastructures and the depth of the trajectory where submarine cable will be placed. Therefore, the cost of the power link is directly related to the depth of the ocean considering submarine cable performance and the installing process. The benefits of the interconnectivity are social, political, economic, and technical. Key words: Caribbean area, Renewable energies,Interconnectivity of electricity markets.
References [1] L. Burunciuc, Clean energy in the Caribbean: a triple win, World bank blogs, (2022). [2] H. Thomsom, et al, “Understanding, recognizing, and sharing energy poverty knowledge and gaps in Latin America and the Caribbean – because conocer es resolver”, Energy Research & Social Science (2022). Vol. 87. [3] A. Bárcena, Latin America Energy Week, United Nations, (2021). [4] ACER, European Union Agency for the Cooperation of Energy Regulation, ACER’s Final Assessment of the EU Wholesale Electricity Market Design (2022). [5] F. Nuñez et al., “The Power Link Caribbean Project”, RE&PQJ (2023), Vol. 21, 345- 350. [6] M. Ardelean, P. Minnebo, HVDC Submarine Power Cables in the World, JRC Technical Report, (2015). [7] F. Guo, B. J. Van Ruijven, B. Zakeri, “Implications of intercontinental renewable electricity trade for energy systems and emissions”, Nat Energy (2022), Vol. 7, 1144–1156. [8] P. Beiter, W. J. Cole, D. C. Steinberg, “Modeling the value of integrated U.S. and Canadian power sector expansion”, The Electricity Journal (2017). Vol. 30, Issue 2. [9] D. Vine, Interconnected: Canadian and U.S. Electricity, Center for Climate and Energy Solutions, (2017). [10] J. McNeece, V. Irastorza, J. M. Martin, A Call for a Deeper Integration between Electrical Systems of the United States and Mexico, Institute of Americas (2022). [11] C. A. Agostini, A. M. Guzmán, S. Nasirov, C. Silva, “A surplus based framework for cross-border electricity trade in South America”, Energy Policy (2019)., Vol. 12, 673-684. [12] L. Barbosa, et al., Hydro, wind and solar power as a base for a 100% renewable energy supply for South and Central America, PLOS ONE (2017). 12(3). [13] S. Palistine, (2020). Orchestrating Regionalism: The Interamerican Development Bank and the Central American Electric System, Review of Policy Research (2020), 22 June. [14] M. Ardelean, P. Minnebo, HVDC Submarine Power Cables in the World. JRC Technical Report (2015). [15] T. Worzyk, Submarine Power Cables: Design, Installation, Repair, Environmental Aspects, Springer-Verlag, (2009) .[16] Z. Nadolny, “Electric Field Distribution and Dielectric Losses in XLPE Insulation and Semiconductor Screens of High-Voltage Cables”, Energies (2022). Vol. 15. [17] J. Sau, E. Prieto, O. Gomis,” Modelling and Control of an Interline Current Flow Controller for Meshed HVDC Grids”, IEEE Transactions on Power Delivery (2017). Vol. 32. [18] O. Cwikowski, et al., “Integrated HVDC Circuit Breakers with Current Flow Control Capability”, IEEE Transactions on Power Delivery (2028). Vol. 33. [19] B. Taormina, et al., “A review of potential impacts of submarine power cables on the marine environment: Knowledge gaps, recommendations and future directions”, Renewable and Sustainable Energy Reviews (2018). Vol. 96. [20] GEBCO. Accessed on January 24th of 2024: https://download.gebco.net/ [21] Google Earth. Accessed on January 24th of 2024: https://www.google.com/intl/es/earth/about/ |
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