Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation

The concerns over the increase in carbon footprints and global climatic changes have given momentum to find ways that reduce the use of fossil fuels to generate electricity. Offshore and onshore windmills for electricity generation are viable options for bulk power generation. A wind generation syst...

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Autores principales: P. Meena, V. Prema, M. S. Bhaskar, Dhafer Almakhles
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Lenguaje:EN
Publicado: IEEE 2021
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Acceso en línea:https://doaj.org/article/7e1d22fa42604c75a8ef89025618ad8e
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spelling oai:doaj.org-article:7e1d22fa42604c75a8ef89025618ad8e2021-11-20T00:02:27ZBi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation2169-353610.1109/ACCESS.2021.3127526https://doaj.org/article/7e1d22fa42604c75a8ef89025618ad8e2021-01-01T00:00:00Zhttps://ieeexplore.ieee.org/document/9612191/https://doaj.org/toc/2169-3536The concerns over the increase in carbon footprints and global climatic changes have given momentum to find ways that reduce the use of fossil fuels to generate electricity. Offshore and onshore windmills for electricity generation are viable options for bulk power generation. A wind generation system has a variable frequency variable voltage supply at the induction generator terminals in response to the changes in the wind velocity and in turn, the speed of the wind turbine. There is a need for an additional power electronic interface to maintain the frequency and voltage at the terminals of the wind generator constant. This paper introduces a novel three-phase Bifurcated Winding Induction Generator (BWIG) comprising a bifurcated set of stator windings. A prototype model has been developed by bifurcating the stator windings of a three-phase induction machine. One part of the winding acts as the excitation winding, and the other half is used as output winding capable of producing three-phase voltages at a constant frequency at all speeds of the prime over. The machine is tested for sub and super synchronous speeds and the characteristics plotted. The flux analysis of the machine is simulated using Ansys Maxwell software. The voltage is controlled by a simple off-on control implemented using a digital controller, TMS320F28335.P. MeenaV. PremaM. S. BhaskarDhafer AlmakhlesIEEEarticleBifurcated stator winding configurationclosed loopflux analysisthree phase induction generatorswind energyElectrical engineering. Electronics. Nuclear engineeringTK1-9971ENIEEE Access, Vol 9, Pp 153188-153198 (2021)
institution DOAJ
collection DOAJ
language EN
topic Bifurcated stator winding configuration
closed loop
flux analysis
three phase induction generators
wind energy
Electrical engineering. Electronics. Nuclear engineering
TK1-9971
spellingShingle Bifurcated stator winding configuration
closed loop
flux analysis
three phase induction generators
wind energy
Electrical engineering. Electronics. Nuclear engineering
TK1-9971
P. Meena
V. Prema
M. S. Bhaskar
Dhafer Almakhles
Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation
description The concerns over the increase in carbon footprints and global climatic changes have given momentum to find ways that reduce the use of fossil fuels to generate electricity. Offshore and onshore windmills for electricity generation are viable options for bulk power generation. A wind generation system has a variable frequency variable voltage supply at the induction generator terminals in response to the changes in the wind velocity and in turn, the speed of the wind turbine. There is a need for an additional power electronic interface to maintain the frequency and voltage at the terminals of the wind generator constant. This paper introduces a novel three-phase Bifurcated Winding Induction Generator (BWIG) comprising a bifurcated set of stator windings. A prototype model has been developed by bifurcating the stator windings of a three-phase induction machine. One part of the winding acts as the excitation winding, and the other half is used as output winding capable of producing three-phase voltages at a constant frequency at all speeds of the prime over. The machine is tested for sub and super synchronous speeds and the characteristics plotted. The flux analysis of the machine is simulated using Ansys Maxwell software. The voltage is controlled by a simple off-on control implemented using a digital controller, TMS320F28335.
format article
author P. Meena
V. Prema
M. S. Bhaskar
Dhafer Almakhles
author_facet P. Meena
V. Prema
M. S. Bhaskar
Dhafer Almakhles
author_sort P. Meena
title Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation
title_short Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation
title_full Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation
title_fullStr Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation
title_full_unstemmed Bi-Furcated Stator Winding Configuration in Three-Phase Induction Generators for Wind Power Generation
title_sort bi-furcated stator winding configuration in three-phase induction generators for wind power generation
publisher IEEE
publishDate 2021
url https://doaj.org/article/7e1d22fa42604c75a8ef89025618ad8e
work_keys_str_mv AT pmeena bifurcatedstatorwindingconfigurationinthreephaseinductiongeneratorsforwindpowergeneration
AT vprema bifurcatedstatorwindingconfigurationinthreephaseinductiongeneratorsforwindpowergeneration
AT msbhaskar bifurcatedstatorwindingconfigurationinthreephaseinductiongeneratorsforwindpowergeneration
AT dhaferalmakhles bifurcatedstatorwindingconfigurationinthreephaseinductiongeneratorsforwindpowergeneration
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