(University of Hassan II, Morocco)(2) Ahmed Moutabir
(University of Hassan II, Morocco)(3) Bahloul Bensassi
(University of Hassan II, Morocco)(4) Abderrahmane Ouchatti
(University of Hassan II, Morocco)(5) * Yassine Zahraoui
(University of Hassan II, Morocco)(6) Bouchaib Benazza
(University of Hassan II, Morocco)*corresponding author
AbstractThe multiplication of nonlinear loads leads to significant degradation of the energy quality, thus the interconnection network is subject to being polluted by the generation of harmonic components and reactive power, which causes a weakening efficiency, especially for the power factor. In three-phase systems, they can cause imbalances by causing excessive currents at the neutral. This research treats the operation of robust voltage-oriented control (VOC) for a shunt active power filter (SAPF). The main benefit of this technique is to guarantee a decoupled control of the active and reactive input currents, as well as the input reference voltage. To sustain the DC voltage, a robust PI-structure-based antiwindup is inserted to ensure active power control. Besides, a robust phase-locked loop (PLL)-based bandpass multivariable filter (BPMVF) is used to improve the network voltage quality. Furthermore, a space vector modulation (SVM) is designed to replace the conventional one. A sinusoidal network current and unitary power factor are achieved with fewer harmonics. The harmonics have been reduced from 27.98% to 1.55% which respects the IEEE 519-1992 standard. Expanded simulation results obtained from the transient and steady-state have demonstrated the high performance of the suggested control scheme. KeywordsPower Quality Improvement; Harmonics Reduction; Shunt Active Power Filter; Voltage-Oriented Control; Bandpass Multivariabe Filter; Space Vector Modulation; IEEE 519-1992 Standard
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DOIhttps://doi.org/10.31763/ijrcs.v3i4.1160 |
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Copyright (c) 2023 Bouchaib Essoussi, Ahmed Moutabir, Bahloul Bensassi, Abderrahmane Ouchatti, Yassine Zahraoui, Bouchaib Benazza
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International Journal of Robotics and Control Systems
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