2021
DOI: 10.1109/tpwrs.2020.3035113
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Methodology for Optimal Deployment of Corrective Control Measures to Ensure Transient Stability of Uncertain Power Systems

Abstract: This paper proposes a method for the optimal deployment of Corrective Control Measures (CCMs) for the improvement of transient stability in uncertain power systems. First, the critical oscillation patterns of the disturbed system are identified using Hierarchical Clustering (HC) with statistically defined algorithm parameters. This is followed by the identification of critical generators where the application of CCMs will have maximum impact. The results show that a significant reduction in multi-machine unsta… Show more

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Cited by 9 publications
(11 citation statements)
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“…In order to obtain the database of harmonic measurements suitable for ANN training, a modified IEEE 68-bus New England Test System-New York Power System (NETS-NYPS) test network (shown in Fig. 1) was simulated using Monte Carlo based probabilistic approach considering various system operation conditions caused by uncertainties [20,21]. It is a 230 kV transmission system which consists of 68 buses in five geographical areas.…”
Section: A Test Networkmentioning
confidence: 99%
See 1 more Smart Citation
“…In order to obtain the database of harmonic measurements suitable for ANN training, a modified IEEE 68-bus New England Test System-New York Power System (NETS-NYPS) test network (shown in Fig. 1) was simulated using Monte Carlo based probabilistic approach considering various system operation conditions caused by uncertainties [20,21]. It is a 230 kV transmission system which consists of 68 buses in five geographical areas.…”
Section: A Test Networkmentioning
confidence: 99%
“…The probabilistic scaling factors utilised to represent the operating uncertainties of RES and load demand are updated every 10-min interval, in accordance with the time step required by standard IEEE519 [25]. The probabilistic output/loading scaling factors of wind, PV plans and loads are assumed to be sampled by following Weibull distribution (φ=11.1, k=2.2), Beta distribution (α=13.7, β=1.3) and Normal distribution (μ=1, σ=0.033), respectively [21].…”
Section: B Modelling Of Uncertaintiesmentioning
confidence: 99%
“…For loads, wind, and PV plans, the probabilistic output/loading scaling factors are assumed to be sampled by following Normal distribution (μ=1, σ=0.033). Weibull distribution (φ=11.1, k=2.2) and Beta distribution (α=13.7, β=1.3), respectively [14]. In transmission network, harmonic distortions are mainly injected by PE interfaced wind, PV, and load demands.…”
Section: Probablistic Modelling Of Uncertainties and Harmonicmentioning
confidence: 99%
“…The test network is modelled and simulated in the DigSILENT/PowerFactory environment [12], using Monte Carlo based probabilistic approach for considering operating uncertainties caused by PE interfaced generation and nonliner loads [13,14]. The sequential ANNs was implemented in MATLAB.…”
Section: Introductionmentioning
confidence: 99%
“…The generators are considered out of step when the rotor angle deviations exceed the pre-specified limits following faults [5]. Therefore, the critical fault clearing time (CCT) is considered as accurate indicator of the system transient stability [6], [7]. Artificial intelligent and statistical analysis methods were applied to reduce the TSA computation time using phasor measurement units (PMUs) [8].…”
Section: Introductionmentioning
confidence: 99%