Bibliometric Study Applied to the Overtopping Wave Energy Converter Device

Maycon da Silveira Paiva(Federal University of Rio Grande and Federal University of Rio Grande do Sul, Brazil.)
Leonardo da Silva Silveira(Federal University of Rio Grande and Federal University of Rio Grande do Sul, Brazil.)
Liércio André Isoldi(Federal University of Rio Grande and Federal University of Rio Grande do Sul, Brazil.)
Bianca Neves Machado(Federal University of Rio Grande and Federal University of Rio Grande do Sul, Brazil.)

Article ID: 306

Abstract


The present study aims to analyze the state of the art of scientific studies about the Overtopping device used to convert sea wave energy into electrical energy, by means the Bibliometric methodology. The development of this study took place through the selection of articles from conference proceedings, as well as national and international journals. The Bibliometric methodology consists of a statistical tool that allows quantifying the measurement of production indexes. Using selected keywords, it was conducted a survey of studies in the online databases of Science Direct, SciELO and Google Scholar. The works found then went through a filtering process, in order to limit the Bibliometric study only to studies about Overtopping devices as sea Wave Energy Converter (WEC). Finally, the investigation of these selected articles was carried out under the optics of production and authorship study, content study and study of bibliographic references. Where it was identified growth in publications related to the topic, methodologies used and, among other indicators, the authors most cited in the analyzed articles. The predominant keywords used were “Wave Energy Converter” and “Overtopping”. It was noted that Brazilian universities are leaders in the productivity, presenting more than 36% of the scientific production regarding Overtopping WECs.


Keywords


Bibliometry; Overtopping device; Wave energy converter; State of the art

Full Text:

PDF

References


Faria, F. A. M., Jaramillo, P, Sawakuchi, H. O., Richey, J. E., Barros, N. Estimating Greenhouse Gas Emissions from Future Amazonian Hydroelectric Reservoirs. Environmental Research Letters, 2015, 10.

Soerensen, H. C. e Weinstein, A. Ocean Energy: Position paper for IPCC. In: proceedings of IPCC Scoping Meeting on Renewable Energy Sources, Alemanha, 2008.

Pecher, A., Kofoed, J. Handbook of Ocean Wave En?ergy. Springer Nature, Switzerland, 2017.

Mendes, R. P. G. Energia das ondas: desenvolvimen?to de uma tecnologia de geração: gerador tubular. Master Thesis, Universidade da Beira Interior, Portu?gal, 2011.

Santos, A., Weber, L., Moreira, T. A Matriz Energéti?ca Brasileira e o Aproveitamento das Fontes Renová-veis. Análise Conjuntural, 2006, 28.

Kallesøe, B. S. Aero-Hydro-Elastic Simulation Plat?form for Wave Energy Systems and Floating Wind Turbines. DTU, Risø-R-1767, Denmark, 2011.

Cruz, J. Ocean Wave Energy-Current Status and Fu?ture Prepectives. Springer-Verlag Berlin Heidelberg, Germany, 2008.

LIMA, J. A. O. Gerador de Baixa Rotação para Apro?veitamento de Energia das Ondas, Master Thesis, Universidade Nova de Lisboa, Portugal, 2010.

WavEC. Potencial e Estratégia de Desenvolvimento da Energia das Ondas em Portugal. Wave Energy Centre, 2004.

Cruz, J., Sarmento, A. Energia das Ondas-Introdução aos Aspectos Tecnológicos, Econômicos e Ambien?tais. Instituto do Ambiente, Alfragide, 2004.

Rhinefrank, K. Agamloh, E. B. Von Jouanne, A. No?vel ocean energy permanent magnet linear generator buoy. Renewable Energy, 2006, 31.

ETSU-Energy Technology Support Unit; Technology status report: Wave energy, a report by ETSU as part of the DTI’s new and Renewable Energy Programme, Technical report, Energy Technology Support Unit, 2001.

Machado, B. N., Kisner, E. V., Paiva, M. S., Gomes, M. N., Rocha, L. A. O., Marques, W. C., Santos, E. D., Isoldi, L. A. Numerical generation of regular waves using discrete analytical data as boundary condition of prescribed velocity. In: XXXVIII Congresso Ibe?ro-Latinoamericano de Métodos Computacionais em Engenharia, Brazil, 2017.

Kofoed, J. P., Frigaard, P., Friis-Madsen, E., Sørensen, H. C. Prototype Testing of the Wave En?ergy Converter Wave Dragon. Renewable Energy, 2006, 31.

Margheritini, L., Vicinanza, D., Frigaard, P. SSG Wave Energy Converter: Design, Reliability dnd Hy?draulic Performance of an Innovative Overtopping Device. Renewable Energy, 2009, 34.

Machado, B. Modelagem Computacional e Otimização Geométrica de um dispositivo de Galga?mento para a conversão da energia das ondas do mar em energia elétrica. Master Thesis, Federal Universi?ty of Rio Grande, Brazil, 2012.

Longaray, A. A., Popiek, J. R., T. L., Munhoz, P. R. S., Geri, F. S., Castelli, T. M. Caracterização da

Produção Científica Brasileira sobre a Aplicação de Métodos Multicritério de Apoio à Decisão: uma Aná-lise das Publicações entre 2004-2013. In: XXXV En?contro Nacional de Engenharia de Produção, Brazil, 2015.

Guedes, V. F. S.; Borschiver, S.; Bibliometria: uma Ferramenta Estatística para a Gestão da Informação e do Conhecimento, em Sistemas de Informação, de Comunicação e de Avaliação Cientifica e Tecnológi?ca. In: Encontro Nacional de Ciências da Informação (CINFORM), 2005.

Silva, A. P. F., Nascimento, A. N., Pinho, M. A. B.,Falk, J. A. Estudo Bibliométrico sobre Custo em Organizações da Construção Civil: Contribuições do Congresso Brasileiro de Custo de 1996, a 2010. In: Congresso Brasileiro de Custos, 2012.

Santos, G. C. Análise Bibliométrica dos Artigos Pu?DOI: https://doi.org/10.36956/sms.v2i1.306 Sustainable Marine Structures | Volume 02 | Issue 01 | January 2020 Distributed under creative commons license 4.0 44 blicados como Estudos Bibliométricos na História do Congresso Brasileiro de Custos. Pensar Contábil, 2015, 15.

Barbosa, D. V. E., Santos, A. L. G., Dos Santos, E. D., Souza, J. A. Overtopping Device Numerical Study: Openfoam Solution Verification and Evaluation of Curved Ramps Performances. International Journal of Heat and Mass Transfer, 2019, 131.

Beels, C., Troch, P., De Backer, G., Vantorre, M., De Rouck, J. Numerical Implementation and Sensitivity Analysis of a Wave Energy Converter in a Time-De?pendent Mild-Slope Equation Model. Coastal Engi?neering, 2010, 57.

Buccino, M., Stagonas, D., Vicinanza, D. Develop?ment of a Composite Sea Wall Wave Energy Con?verter System. Renewable Energy, 2015, 81.

Carballo, R., Iglesias, G. Wave Farm Impact Based on Realistic Wave-WEC Interaction. Energy, 2013, 51.

Contestanile, P., Ferrante, V., Di Lauro, E., Vicinan?za, D. Prototype Overtopping Breakwater for Wave Energy Conversion at Port of Naples. Proceedings of the Twenty-sixth International Ocean and Polar Engi?neering Conference, 2016.

Contestabile, P., Iuppa, C., Di Lauro, E., Cavallaro, L., Andersen, T. L., Vicinanza, D. Wave Loadings Acting on Innovative Rubble Mound Breakwater for Overtopping Wave Energy Conversion. Coastal En?gineering, 2017, 122.

Di Lauro, E., Lara, J. L., Maza, M., Losada, I. J., Contestabile, P., Vicinanza, D. Stability Analysis of a Non-Conventional Breakwater for Wave Energy Conversion. Coastal Engineering, 2019, 145.

Dos Santos, E. D., Machado, B. N., Zanella, M. M., Gomes, M. das N., Souza, J. A., Isoldi, L. A., Rocha, L. A. O. Numerical Study of the Effect of the Rela?tive Depth on the Overtopping Wave Energy Con?verters According to Constructal Design. Defect and Diffusion Forum, 2014, 348.

Fernandez, H., Iglesias, G., Carballo, R., Castro, A., Fraguela, J. A., Taveira-Pinto, F., Sanchez, M. The new Wave Energy Converter WaveCat: Concept and Laboratory Tests. Marine Structures, 2012, 29.

Frigaard, P. B., Kofoed, J. P., Rasmussen, M. R. Overtopping Measurements on the Wave Dragon Nissum Bredning Prototype. The Proceedings of the Fourteenth International Offshore and Polar Engi?neering Conference, 2004.

Gomes, M. N., Lara, M. F. E., Iahnke, S. L. P., Mach?ado, B. N., Goulart, M. M., Seibt, F. M., Dos Santos, E. D., Isoldi, L. A., Rocha, L. A. O. Numerical Ap?proach of the Main Physical Operational Principle of Several Wave Energy Converters: Oscillating Water Column, Overtopping and Submerged Plate. Defect and Diffusion Forum, 2015, 362.

Goulart, M. M., Martins, J. C., Gomes, M. N.,Acunha Jr, I. C., Souza, J. A., Rocha, L. A. O., Isoldi, L. A., Dos Santos, E. D. Constructal Design de um Dispositivo de Galgamento Onshore em Escala real para uma Profundidade Fixa. Scientia Plena, 2015, 11.

Z. Han, Z. Liu, H. Shi. Numerical Study on Overtop?ping Performance of a Multi-Level Breakwater for Wave Energy Conversion. Ocean Engineering, 2018, 150.

Iahnke, S. L. P., Gomes, M. N., Isoldi, L. A., Rocha, L. A. O. Energia das Ondas do Mar: Modelagem Computacional de um Dispositivo de Galgamen?to. Vetor, 2009, 19.

Jungrungruengtaworn, S., Hyun, B.-S. Influence of Slot Width on the Performance of Multi-Stage Over?topping Wave Energy Converters. International Jour?nal of Naval Architecture and Ocean Engineering, 2017, 9.

Knott, G. F., Flower, J. O. Simulation Studies of the Basic Non-Linear Effects of Wave-Energy Conver?sion by an Overtopping Water-Column. Energy Con?version, 1979, 19.

Kofoed, J. P., Frigaard, P., Friis-Madsen, E.,Sørensen, H. C. Prototype Testing of the Wave

Energy Converter Wave Dragon. Renewable Energy,2006, 31.

Kofoed, J. P. Vertical Distribution of Wave Overtop?ping for Design of Multi Level Overtopping Based Wave Energy Converters. Proceedings of the 30th International Conference on Coastal Engineering, 2006.

Z. Liu, Hyun, B. S., J. Jin. Numerical Prediction for Overtopping Performance of OWEC. IEEE, 2008.

Z. Liu, H. Shi, Y. Cui, Kim, K. Experimental Study on Overtopping Performance of a Circular Ramp Wave Energy Converter. Renewable Energy, 2017, 104.

Z. Liu, Z. Han, H. Shi, W. Yang. Experimental Study on Multi-Level Overtopping Wave Energy Converter Under Regular Wave Conditions. International Jour?nal of Naval Architecture and Ocean Engineering, 2018, 10.

Machado, B. N., Dos Santos, E. D., Isoldi, L. A., Gomes, M. N., Rocha, L. A. O. Análise Numérica da Geometria da Rampa de um Dispositivo de Galgamento Onshore em Escala Real Aplicando o Design Construtal. Revista Brasileira de Energias Renováveis, 2017, 6.DOI: https://doi.org/10.36956/sms.v2i1.306Sustainable Marine Structures | Volume 02 | Issue 01 | January 2020 Distributed under creative commons license 4.0 45

Margheritini, L., Vicinanza, D., Frigaard, P. SSG Wave Energy Converter: Design, Reliability and Hydraulic Performance of an Innovative Overtopping Device. Renewable Energy, 2009, 34.

Martins, J. C., Goulart, M. M., Gomes, M. N., Souza, J. A., Rocha, L. A. O., Isoldi, L. A., Dos Santos, E. D.Análise Numérica de um Dispositivo de Galgamento Onshore Comparando a Influência de uma Onda Monocromática e de um Espectro de Ondas. Revista Brasileira de Energias Renováveis, 2017, 6.

Martins, J. C., Barbosa, D. V. E., Goulart, M. M.,Viegas, A. R., Furich, A. S., Rocha, L. A. O., Souza, J. A., Isoldi, L. A., Dos Santos, E. D. Estudo dos Procedimentos Numéricos para Simulação de um Dispositivo de Galgamento. Revista Brasileira de Energias Renováveis, 2017, 6.

Martins, J. C., Goulart, M. M., Gomes, M. N., Souza, J. A., Rocha, L. A. O., Isoldi, L. A., Dos Santos, E. D. Geometric Evaluation of the Main Operational Principle of an Overtopping Wave Energy Converter by Means of Constructal Design. Renewable Energy,2018, 118.

Monk, K., Zou, Q., Conley, D. An Approximate Solution for the Wave Energy Shadow in the Lee of an Array of Overtopping Type Wave Energy Converters. Coastal Engineering, 2013, 73.

Musa, M. A., Maliki, A. Y., Ahmad, M. F., Sani, W. N., Yaakob, O., Samo, K. B. Numerical Simulation of Wave Flow Over the Overtopping Breakwater for Energy Conversion (OBREC) Device. Procedia Engineering, 2017, 194.

Mustapa, M. A., Yaakob, O. B., Ahmed, Y. M., Rheem, C., Koh, K. K., Adnan, F. A. Wave Energy

Device and Breakwater Integration: A Review. Renewable and Sustainable Energy Reviews, 2017, 77.

Oliveira, P., Taveira-Pinto, F., Morais, T., Rosa--Santos, P. Aproveitamento da Energia do Mar

Através do Espraiamento em Estruturas Costeiras. In: 9as Jornadas de Hidráulica, Recursos Hídricos e Ambiente, 2014.

Thaha. A., Maricar, F., Aboe, A. F., Dwipuspita, A. I. The Breakwater, From Wave Breaker to Wave Catcher. Procedia Engineering, 2015, 116.

Tedd, J., Kofoed, J. P. Measurements of Overtopping Flow Time Series on the Wave Dragon, Wave Energy Converter. Renewable Energy, 2009, 34.

Vasconcellos, L. S., Rubin, L. M., Goulart, M. M.,Dos Santos, E. D., Isoldi, A. L. Modelagem Computacional do Princípio de Funcionamento de um Conversor de Energia das Ondas do Mar em Energia Elétrica do Tipo Seawave Slot-Cone Generator (SSG). In: 12ª Mostra de Produção Universitária, 2013.

Vicinanza, D., Margheritini, L., Kofoed, J.P., Buccino, M. The SSG Wave Energy Converter: Performance, Status and Recent Developments. Energies, 2012, 5.

Vicinanza, D., Contestabile, P., Norgaard, J. Q. H., Anderson, T. L. Innovative Rubble Mound Breakwaters for Overtopping Wave Energy Conversion. Coastal Engineering, 2014, 88.

Kofoed, J. P. Wave Overtopping of Marine Structures: Utilization of Wave Energy. Doctoral Thesis, Aalborg University, Denmark, 2002.

Falcão, A. F. O., Wave Energy Utilization: a Review of the Technologies, Renewable and Sustainable Energy Reviews, 2010, 14.

Beels, C., Troch, P., De Visch, K., Kofoed, J. P., De Backer, G. Application of Time-Dependent Mild Slope Equations for the Simulation of Wake Effects in the Lee of a Farm of Wave Dragon Wave Energy, Renewable Energy, 2010, 35.




DOI: http://dx.doi.org/10.36956/sms.v2i1.306

Refbacks

  • There are currently no refbacks.


Copyright © 2021 Bianca Neves Machado

Creative Commons License
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.