Power Quality Disturbance Identification and Optimization Based on Machine Learning
DOI:
https://doi.org/10.13052/dgaej2156-3306.3723Keywords:
Power quality disturbance, deep learning, convolutional neural network.Abstract
In order to improve the electrical quality disturbance recognition ability of the
neural network, this paper studies a depth learning-based power quality dis-
turbance recognition and classification method: constructing a power quality
perturbation model, generating training set; construct depth neural network;
profit training set to depth neural network training; verify the performance of
the depth neural network; the results show that the training set is randomly
added 20DB-50DB noise, even in the most serious 20dB noise conditions,
it can reach more than 99% identification, this is a tradition. The method
is impossible to implement. Conclusion: the deepest learning-based power
quality disturbance identification and classification method overcomes the
disadvantage of the selection steps of artificial characteristics, poor robust-
ness, which is beneficial to more accurately and quickly discover the category
of power quality issues.
Downloads
References
S Ali, K Wu, K Weston, D Marinakis. A Machine Learning Approach to
Meter Placement for Power Quality Estimation in Smart Grid[J]. IEEE
Transactions on Smart Grid, 7(3), pp. 1552–1561, 2016.
RMA Velásquez, Lara J. Root cause analysis improved with machine
learning for failure analysis in power transformers[J]. Engineering
Failure Analysis, 115, p. 104684, 2020.
TE Raptis, GA Vokas, PA Langouranis, SD Kaminaris. Total Power
Quality Index for Electrical Networks Using Neural Networks[J].
Energy Procedia, 74, pp. 1499–1507, 2015.
Tomá Vantuch, Stanislav Miák, Tomá Jeowicz, Tomá Buriánek, Václav
Snáel. The power quality forecasting model for off-grid system sup-
ported by multiobjective optimization[J]. IEEE Transactions on Indus-
trial Electronics, (12), pp. 1–1, 2017.
D Xiao, F Fang, J Zheng, CC Pain, IM Navon. Machine learning-based
rapid response tools for regional air pollution modelling[J]. Atmospheric
Environment, 199(FEB.), pp. 463–473, 2019.
MI Jordan, TM Mitchell. Machine learning: Trends, perspectives, and
prospects[J]. Science, 349(6245), pp. 255–260, 2015.
N Jean, M Burke, M Xie, WM Davis, S Ermon. Combining satellite
imagery and machine learning to predict poverty[J]. Science, 353(6301),
pp. 790–794, 2016.
VUB Challagulla, FB Bastani, IL Yen, RA Paul. Empirical assessment
of machine learning based software defect prediction techniques[J].
International Journal of Artificial Intelligence Tools, 17(02), pp. 389–
, 2015.
ND Sidiropoulos, L De Lathauwer, X Fu, K Huang, EE Papalex-
akis, C Faloutsos. Tensor Decomposition for Signal Processing and
Machine Learning[J]. IEEE Transactions on Signal Processing, PP(13),
pp. 3551–3582, 2017.
AD Vita, Z Li, JR Kermode. Molecular Dynamics with On-the-Fly
Machine Learning of Quantum-Mechanical Forces[J]. Physical Review
Letters, 114(9), p. 096405, 2015.