Home / Current Issue / Paper 1703351
Enhancement of 11kV Distribution Network for Power Quality Improvement Using Artificial Neural Network Based DVR
Subject area: Science,Engineering and Technology · Area of research: Power Distribution
Abstract
Voltage sag and swell are major challenges facing Rumuomoi 11kV distribution network and no mitigationor control by means of custom power devices has been considered. This Research work is aimed at addressing these power quality challenges in Rumuomoi 11kV distribution network using artificial neural network (ANN) controller based dynamic voltage restorer. The artificial neutral network controller used to control the dynamic voltage restorer was trained with the input and target data obtained from simulation with PI controller. Matlab Simulink software is used for this research. The proposed dynamic voltage restorer system was tested with replicated model of Rumuomoi 11kV distribution network. The result obtained shows that Bus 7 with 0.938p.u, Bus 8 with 0.9244p.u, Bus 9 with 0.9148p.u, Bus 10 with 0.9035p.u, Bus 11 with 0.8912p.u and Bus 12 with 0.8811p.u violated the statutory limit condition of 0.95-1.01p.u. After optimization of the network using DVR, there was no bus voltage violation which shows that DVR was effective in improving voltage profile as well as mitigating voltage sag and swell from the distribution network.
Keywords
Enhancement, Distribution, Power Quality, Artificial Neural Network, DVR.
References
[1] Uwho, K. O., Idoniboyeobu, D. C., & Amadi, H. N. (2022). Design and Simulation of 500kW Grid Connected PV System for Faculty of Engineering, Rivers State University Using Pvsyst software. Iconic Research and Engineering Journals, 5(8), 2456-8880.
[2] Gupta, B.R. (2016). Power system analysis and design. Wheeler publishing Allahabard.
[3] Braide, S. L.&Idoniboyeobu, D. C. (2021). Enhancement of Electric Power Supply to Abuloma Community in Port-Harcourt for Improved Performance. Global Scientific 9(7), 621-628.
[4] Theraja, B.L. & Theraja, A.K. (2005). A Textbook of Electrical and Technology, S. Chand & Company Ltd, Ram Nagar, New Delhi.
[5] Braide, S. L., Oke I. Awochi &Idoniboyeobu, D. C. (2019). Optimal Sizing of Distribution Transformer Using Improved Consumer Load Forecasting. American Journal of Engineering Research (AJER) 8(4), 83-89.
[6] Braide, S. L., Ayobo, P. S. & Idoniboyeobu, D. C. (2020). Electric Power Faults Evaluation on 33kV Distribution Network.
[7] Irfan, I. M., Patil, D. R. & Isak, I. M. (2013). Reactive PowerCompensation and Harmonic Mitigation of Distribution System using SAPECompensator. International Journal of Engineering Science and Innovative Technology, 2(3), 495-502.
[8] Braide, S. L., Owokere, E. E. & Idoniboyeobu, D. C. (2018). Integration of Reactive Power Compensation in a Distribution Network Case Study of Rumuola Injection and DistributionNetwork Port-Harcourt, Nigeria. International Journal of Engineering Science Inversion (IJESI),7(10), 75-130.
[9] Okereafor, F. C., Idoniboyeobu, D. C. & Bala, T. K. (2017) Analysis of 33/11KV RSU Injection Substation for Improved Performance with Distributed Generation (DG) UnitsAmerican Journal of Engineering Research,6 (9), 301-316.
[10] Amesi, C. (2016). Power flow analysis of 33kv line for distribution upgrade Master Thesis University of Port Harcourt, Nigeria.
[11] Sankaran C. (2002). Power Quality CRC PRESS New York USA.
[12] Roger, C. D. Mark F.M, & Wayne B., (2004) Electrical power system quality’, Second edition, Mcgraw-Hill Companies.
[13] Zahir, J.P. (2011). Computational Techniques for Power Quality Data Monitoring and Management; Phd Dissertation, Victoria University, Melbourne, Australia.
[14] Vijavaranjan (2010) Neural Network Based UnifiedPower Quality Conditioner International Journal of Modern Engineering Research, 2(1), 359-365.
[15] Saxena, D., Verma, K.S. & Singh, S.N. (2010). Power quality event classification: An Overview and key Issues.International Journal of Engineering, Science and Technology, 1(3), 186-199.
[16] Joseph, S. (2011). The Seven Types of Power Problems: Schneider Electric Data Center Science Center, 22-30.
[17] Shailesh, M., Deshmukh, B. D. &Gawande, S. P.(2013). A review of’ powerquality problems-voltage sags for different faults. International Journal of Scientific Engineering and Technology,2(5), 392-397.
[18] Philippe,F. (2001). Evaluation of Electrical Distribution Networks. World Engineering and Technology, International Journal of Electronics and Communication Engineering 8(4) 1499-1503.
[19] Michael, J. R. (2000). The Impact of Mains Impedance on Power Quality presented at Power Quality. Boston, MA.
[20] PowerCet Corporation (2010). Introduction to Power Quality: Problems, Analysis and Solutions 33-39.
[21] WG Report (2004) Power Quality Indices and Objectives, Retrieved from htip://www.cpdcee,ulhig.brL-.sclenios/Qualidade!Cigre.pdf.
[22] Alexander, K. (2014). Artificial Intelligence Based Three-Phase Unified Power Quality Conditioner’ Journal of Computer Science 3(7),465-477.
[23] Khalid G.B. (2011). Performance Analysis of Multi Converter Unified Power Quality Conditioner Using Pi Controller. Australian Journal of Basic and Applied Sciences, 7(9), 331-340.
[24] Thomas, M., Looming, P.E., Daniel, J.& Carnovale, P.E. (2006). Application of IEEE STD 519-1992 Harmonic Limits,5, 235-244.
[25] Rathika, P. & Devaraj, D. (2010). Artificial Intelligent Controller based Three-PhaseShunt Active Filter for Harmonic Reduction and Reactive Power Compensation, Proceedings of the International Multi-Conference of Engineers and Computer Scientists, 2(4), 34-43.
[26] Vinita, V., Rintu, K.& Manoj, K., (2013). Improvement of power quality by upqc using different intelligent controls: International Journal of Recent Technology and Engineering (IJRTE),2(1), 173-177.
[27] Rama, R. V.& Subhransu, S. D. (2011). Design o UPQC with Minimization of DC Link voltage for the Improvement of Power Quality by Fuzzy Logic Controller.ACEEE int. on Electrical and Power Engineering, 2(1), 36-46.
[28] Joseph, P.N., Elijah M. & Dominic, B.O.K. (2017). Performance Analysis of LMS Adaptive Algorithm for Adaptive Beamforming, International Journal of Applied Engineering Research, 12 (22), 12-18.
How to cite this paper
@article{1703351,
author = {Chikezie, Okechi, Prof. Dikio Clifford Idoniboyeobu, Dr. Sepiribo Lucky Braide, Uwho, Kingsley Okpara},
title = {Enhancement of 11kV Distribution Network for Power Quality Improvement Using Artificial Neural Network Based DVR},
journal = {Iconic Research And Engineering Journals},
year = {2022},
volume = {5},
number = {10},
pages = {102-111},
issn = {2456-8880},
url = {https://www.irejournals.com/formatedpaper/1703351.pdf},
abstract = {Voltage sag and swell are major challenges facing Rumuomoi 11kV distribution network and no mitigationor control by means of custom power devices has been considered. This Research work is aimed at addressing these power quality challenges in Rumuomoi 11kV distribution network using artificial neural network (ANN) controller based dynamic voltage restorer. The artificial neutral network controller used to control the dynamic voltage restorer was trained with the input and target data obtained from simulation with PI controller. Matlab Simulink software is used for this research. The proposed dynamic voltage restorer system was tested with replicated model of Rumuomoi 11kV distribution network. The result obtained shows that Bus 7 with 0.938p.u, Bus 8 with 0.9244p.u, Bus 9 with 0.9148p.u, Bus 10 with 0.9035p.u, Bus 11 with 0.8912p.u and Bus 12 with 0.8811p.u violated the statutory limit condition of 0.95-1.01p.u. After optimization of the network using DVR, there was no bus voltage violation which shows that DVR was effective in improving voltage profile as well as mitigating voltage sag and swell from the distribution network.},
keywords = {Enhancement, Distribution, Power Quality, Artificial Neural Network, DVR.},
month = {April},
}