Enhanced Transient Stability in Power Systems via Intelligent Control of SVCs Using Neural Networks

This paper investigates the application of Static VAR Compensators (SVCs) with neural network control to enhance power system grid stability, particularly in multi-source energy systems. SVCs, as Flexible alternating current Transmission Systems (FACTS) devices, are crucial for reactive power compensation and voltage regulation. The study models and simulates an SVC controlled by a neural network in MATLAB/Simulink, assessing its performance under three-phase fault conditions. The fault a 3-phase to-ground short circuit fault is introduced at location in close proximity to the wind energy sults demonstrate that the proposed control scheme effectively reduces system oscillations and improves dynamic response, leading to faster fault recovery and enhanced overall grid stability. The superior dynamic performance of the SVC-based neural network controller confirms its potential for improving power system resilience.

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Publication Details

Journal
Electrical engineering technical journal.
Published
2025-06-21
DOI
https://doi.org/10.51173/eetj.v2i2.23
Citations
1
Primary Topic
Power System Optimization and Stability
Type
article
Field-Weighted Citation Impact
0.73
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article

Enhanced Transient Stability in Power Systems via Intelligent Control of SVCs Using Neural Networks

Ahmed Saïd Nouri, Raghad Hameed Ahmed
1 citations
Electrical engineering technical journal.
Power System Optimization and Stability
0.73
article

Enhanced Transient Stability in Power Systems via Intelligent Control of SVCs Using Neural Networks

Ahmed Saïd Nouri, Raghad Hameed Ahmed
article en
1 citations

Abstract

This paper investigates the application of Static VAR Compensators (SVCs) with neural network control to enhance power system grid stability, particularly in multi-source energy systems. SVCs, as Flexible alternating current Transmission Systems (FACTS) devices, are crucial for reactive power compensation and voltage regulation. The study models and simulates an SVC controlled by a neural network in MATLAB/Simulink, assessing its performance under three-phase fault conditions. The fault a 3-phase to-ground short circuit fault is introduced at location in close proximity to the wind energy sults demonstrate that the proposed control scheme effectively reduces system oscillations and improves dynamic response, leading to faster fault recovery and enhanced overall grid stability. The superior dynamic performance of the SVC-based neural network controller confirms its potential for improving power system resilience.

Electrical engineering technical journal.Vol. 2(2)
University of Sfax (TN)
Openalex Percentile: Top 26%
Power System Optimization and Stability
0.73
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Enhanced Transient Stability in Power Systems via Intelligent Control of SVCs Using Neural Networks — Ahmed Saïd Nouri, Raghad Hameed Ahmed · Electrical engineering technical journal. (2025) | TGRS Research Map | TGRS