Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid

Wind-generated energy is a fast-growing source of renewable energy use across the world. A dual-feed induction machine (DFIM) employed in wind generators provides active and reactive, dynamic and static energy support. In this document, the droop control system will be applied to adjust the amplitud...

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Main Authors: José Antonio Cortajarena, Oscar Barambones, Patxi Alkorta, Jon Cortajarena
Format: Article
Language:English
Published: MDPI AG 2021-01-01
Series:Mathematics
Subjects:
Online Access:https://www.mdpi.com/2227-7390/9/2/143
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author José Antonio Cortajarena
Oscar Barambones
Patxi Alkorta
Jon Cortajarena
author_facet José Antonio Cortajarena
Oscar Barambones
Patxi Alkorta
Jon Cortajarena
author_sort José Antonio Cortajarena
collection DOAJ
description Wind-generated energy is a fast-growing source of renewable energy use across the world. A dual-feed induction machine (DFIM) employed in wind generators provides active and reactive, dynamic and static energy support. In this document, the droop control system will be applied to adjust the amplitude and frequency of the grid following the guidelines established for the utility’s smart network supervisor. The wind generator will work with a maximum deloaded power curve, and depending on the reserved active power to compensate the frequency drift, the limit of the reactive power or the variation of the voltage amplitude will be explained. The aim of this paper is to show that the system presented theoretically works correctly on a real platform. The real-time experiments are presented on a test bench based on a 7.5 kW DFIG from Leroy Somer’s commercial machine that is typically used in industrial applications. A synchronous machine that emulates the wind profiles moves the shaft of the DFIG. The amplitude of the microgrid voltage at load variations is improved by regulating the reactive power of the DFIG and this is experimentally proven. The contribution of the active power with the characteristic of the droop control to the load variation is made by means of simulations. Previously, the simulations have been tested with the real system to ensure that the simulations performed faithfully reflect the real system. This is done using a platform based on a real-time interface with the DS1103 from dSPACE.
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spelling doaj.art-6e2f91afec014667975f21af1758efae2023-12-03T12:44:32ZengMDPI AGMathematics2227-73902021-01-019214310.3390/math9020143Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart GridJosé Antonio Cortajarena0Oscar Barambones1Patxi Alkorta2Jon Cortajarena3Engineering School of Gipuzkoa, University of the Basque Country, Otaola Hirib. 29, 20600 Eibar, SpainEngineering School of Vitoria, University of the Basque Country, Nieves Cano 12, 01006 Vitoria, SpainEngineering School of Gipuzkoa, University of the Basque Country, Otaola Hirib. 29, 20600 Eibar, SpainEngineering School of Gipuzkoa, University of the Basque Country, Europa Plaza 1, 20018 Donostia, SpainWind-generated energy is a fast-growing source of renewable energy use across the world. A dual-feed induction machine (DFIM) employed in wind generators provides active and reactive, dynamic and static energy support. In this document, the droop control system will be applied to adjust the amplitude and frequency of the grid following the guidelines established for the utility’s smart network supervisor. The wind generator will work with a maximum deloaded power curve, and depending on the reserved active power to compensate the frequency drift, the limit of the reactive power or the variation of the voltage amplitude will be explained. The aim of this paper is to show that the system presented theoretically works correctly on a real platform. The real-time experiments are presented on a test bench based on a 7.5 kW DFIG from Leroy Somer’s commercial machine that is typically used in industrial applications. A synchronous machine that emulates the wind profiles moves the shaft of the DFIG. The amplitude of the microgrid voltage at load variations is improved by regulating the reactive power of the DFIG and this is experimentally proven. The contribution of the active power with the characteristic of the droop control to the load variation is made by means of simulations. Previously, the simulations have been tested with the real system to ensure that the simulations performed faithfully reflect the real system. This is done using a platform based on a real-time interface with the DS1103 from dSPACE.https://www.mdpi.com/2227-7390/9/2/143double feed induction generatorgrid frequency and amplitude supportsmart grid
spellingShingle José Antonio Cortajarena
Oscar Barambones
Patxi Alkorta
Jon Cortajarena
Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid
Mathematics
double feed induction generator
grid frequency and amplitude support
smart grid
title Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid
title_full Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid
title_fullStr Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid
title_full_unstemmed Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid
title_short Grid Frequency and Amplitude Control Using DFIG Wind Turbines in a Smart Grid
title_sort grid frequency and amplitude control using dfig wind turbines in a smart grid
topic double feed induction generator
grid frequency and amplitude support
smart grid
url https://www.mdpi.com/2227-7390/9/2/143
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AT oscarbarambones gridfrequencyandamplitudecontrolusingdfigwindturbinesinasmartgrid
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AT joncortajarena gridfrequencyandamplitudecontrolusingdfigwindturbinesinasmartgrid