A Voltage Fuzzy Controller For A Permanent Magnets Wind Generator

Authors

  • R. Cazes Ortega Universidad de Pamplona
  • J. Fandiño Pelayo Unidades Tecnológicas de Santander

Keywords:

Clean energy, fuzzy logic, PM wind generator, wind energy

Abstract

This article shows the design of a voltage fuzzy controller to carry out the battery charge control in order to assure the improvement of the three-phasing system tension for a permanent magnet wind generator (PMWG). The use of clean energies has become more common in our current environment, due to the low contamination that these systems present, as observed in the wind generation systems. The controller design and simulation processes were carried out by means of the instrument called Fuzzy Toolbox of Matlab, which is a fuzzy logic controller for a permanent magnets wind generator. The behavior of the controller towards different disturbance signals can be observed through the simulation.

References

González Morcillo, C. (2011). Logica Difusa. Recuperado el 20 de 02 de 2017, de http://www.esi.uclm.es/www/cglez/downloads/docencia/2011_Softcomputing/LogicaDifusa.pdf

Kelly , P. (2017). Guía Práctica de Dispositivos de Energía Libre. Obtenido de http://www.free-energy-info.com/Spanish.html

Oscar Javier Suarez Sierra, Aldo Pardo Garcia, Diego Jose Barrera Oliveros (2019). "Fuzzy Controllers Design for Control of the Exciter in a Synchronous Machine".. PROCEEDINGS OF THE LACCEI INTERNATIONAL MULTI CONFERENCE FOR ENGINEERING EDUCATION AND TECHNOLOGY. ISSN: 2414-6390 p.1 - 8 v.1

Vasudevan, K., Rao, S., & Rao , P. (2010). Synchronous Generator Operation. Obtenido de http://www.nptel.ac.in/courses/IIT-MADRAS/Electrical_Machines_II/pdf/2_3.pdf

Bermeo, W. L., De Souza, A. B., Fernandez, T. R., Honorio, D. A., Nogueira dos Reis, L. H., & Barreto, L. H. (2016). Sliding Model Control Applied in Current Loop for a DSP-Basedbased Position Control Applied to Squirrel-Cage Induction Motor. Revista Colombiana de Tecnolgias de Avanzada. ISSN 1692.7257, v1, n 27.

Rincón Castrillo, E. D. ., García Pabón, J. J. ., & Bermúdez Santaella, J. R. . (2019). State of the art of fuel cells. Colombian Journal of Advanced Technologies (RCTA), 1(33), 36-49. https://doi.org/10.24054/rcta.v1i33.83

D. B. Blanco, Y. P. González, O. M. D. Suaréz, J. E. A. Vargas, J. L. D. Rodriguez and A. P. Garcia, (2023). "GUI for fuzzy logic self-tuning PID control and FPD+I control in a temperature plant,", IEEE Colombian Conference on Applications of Computational Intelligence (ColCACI), Bogotá D.C., Colombia, 2023, pp. 1-6, doi: 10.1109/ColCACI59285.2023.10225874.

Carranza Castillo, O. (2012). Estudio de técnicas de control de rectificadores Boost Trifásicos con filtro LCL para reducción de la distorsión armónica en corriente, aplicadas al procesado eficiente de energía en aerogeneradores síncronos de imanes permanentes operando a velocidad var. Obtenido de https://riunet.upv.es/handle/10251/14575?show=full

Conrado Moreno , F. (07 de 02 de 2008). El rotor de una turbina eólica. Obtenido de http://www.cubasolar.cu/biblioteca/Energia/Energia38/HTML/articulo04.htm

Deenma, G. (2009). Opex Energy (Eolica). Obtenido de http://opex-energy.com/eolica/tipos_aerogeneradores.html

DeltaVolt. (2010). Baterías para Sistemas Solares y Eólicos. Obtenido de http://deltavolt.pe/energia-renovable/baterias

J E Araujo, J L Diaz Rodriguez, O M Duque and A Pardo García. (2020). Type-2 fuzzy controller's performance index. Case study: tank level control. Journal of Physics: Conference Series. DOI 10.1088/1742-6596/1704/1/012016

Leal Gonzalez, F. A., & Hernandez Cely, M. M. (2013). Study Wind and Solar Potential of Cucuta, Norte de Santander. Revista Colombiana de Tecnolgias de Avanzada. ISSN 1692.7257, v2, n 22.

Martinez Quintero, C., Diaz Rodriguez, J., & Pardo Garcia, A. (2012). Aplicación de Redes Neuronales al Control de Velocidad en Motores de Corriente Alterna. Revista Colombiana de Tecnolgias de Avanzada. ISSN 1692.7257, v2, n 20.

Pérez García, D. ., García Reina, F. ., & Hernández Eduardo, D. . (2019). Decrease of electrical energy losses by distribution using a novel measurement and control technology for decision making. Colombian Journal of Advanced Technologies (RCTA), 2(34), 144-150. https://doi.org/10.24054/rcta.v2i34.75

D. B. Blanco, Y. P. González, O. M. D. Suaréz, J. E. A. Vargas, J. L. D. Rodriguez and A. P. Garcia, "GUI for fuzzy logic self-tuning PID control and FPD+I control in a temperature plant," 2023 IEEE Colombian Conference on Applications of Computational Intelligence (ColCACI), Bogotá D.C., Colombia, 2023, pp. 1-6, doi: 10.1109/ColCACI59285.2023.10225874.

OBEKI. (2014). GENERADOR DE IMANES PERMANENTES (PMG). Obtenido de http://www.obeki.com/productos/Generadores%20de%20Imanes%20Permanentes.pdf

Ogatha , K., & Kuo, B. (2015). Analisis de la respuesta Transitoria. Obtenido de http://ciecfie.epn.edu.ec/wss/VirtualDirectories/80/CControlC/materias/automatico/Descargas/An%C3%A1lisis/Lecturas/Lecturas_PDF/LECTURA_ANALISIS.pdf

Restrepo Chaustre, Y., Becerra Vargas, J. A., & Pardo Garcia, A. (2015). Methodology for Fault Detection of a Synchronous Motor. Revista Colombiana de Tecnolgias de Avanzada. ISSN 1692.7257, v2, n 26.

Tapia O. , R., Aguilar M. , O., & Ramírez , J. (2004). Control de un Motor Síncrono de Imanes Permanentes Mediante Modos Deslizantes y un Observador Neuronal . Obtenido de http://amca.mx/memorias/amca2004/versiones%20finales/amcafinal118.pdf.

Issue

Section

Articles