A simplified nonlinear controller for transient stability enhancement of multimachine power systems using SSSC device

Nguimfack–Ndongmo, Jean de Dieu; Kenné, Godpromesse; Kuate-Fochie, René; Cheukem, André; Fotsin, Hilaire Bertrand; Lamnabhi‐Lagarrigue, Françoise

doi:10.1016/j.ijepes.2013.08.019

Cited by 31 publications

(7 citation statements)

References 17 publications

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“…Small disturbances in the form of changes in charge occur continuously; the system must have the ability to adjust to changing conditions and operate satisfactorily [6]. The system must also be able to survive numerous severe disturbances, such as a short circuit in a transmission line or loss of an important source of generation.…”

Section: Power System Stabilitymentioning

confidence: 99%

Power System Stability Analysis of SMIB with FOPID using Cuckoo Search Optimized Differential Evaluation

Gajare¹,

Singh²,

Nemade³

2018

IJET

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Due to complexity in the power system there is always a loss of the stability due to the fault. Whenever a fault is intercepted in system, the whole system goes to severe transients. These transients cause oscillation in phase angle which leads poor power quality. The nature of oscillation is increasing instead being sustained, which leads system failure in form of generator damage. To reduce and eliminate the unstable oscillations one needs to use a stabilizer which can generate a perfect compensatory signal in order to minimize the harmonics generated due to instability. This paper presents a Power System stabilizer to reduce oscillations due to small signal disturbance. Additionally, a hybrid approach is proposed using FOPID stabilizer with the PSS connected SMIB. Cuckoo Search (CS) Optimized Differential Evaluation (DE) approach is used for the parameter tuning of the stabilizer. The efficiency of proposed approach is observed by rotor angle and power angle deviations in the SMIB system.

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Section: Power System Stabilitymentioning

confidence: 99%

Power System Stability Analysis of SMIB with FOPID using Cuckoo Search Optimized Differential Evaluation

Gajare¹,

Singh²,

Nemade³

2018

IJET

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“…In recent years, the transient stability problem of power systems has attracted much attention [1][2][3][4][5][6]. Generally, power system stability control methods are divided into two categories: active power control [7,8] and reactive power control [1,9].…”

Section: Introductionmentioning

confidence: 99%

Multi‐Agent Method Based H∞ Supplementary Turbine/Governor Control to Enhance Power System Stability

Meng

Xiao

Zhang

et al. 2019

IEEJ Transactions Elec Engng

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The stability of a power system has always been of concern. Now, wide-area measurement systems are used widely. In this paper, we focus on supplementary turbine/governor control to enhance the stability of a power system with wide-area measurement information. An H∞ supplementary turbine/governor controller based on the multi-agent method is introduced to enhance power system stability. First, the synchronous generator is modeled as a second-order agent. The information of communication topology and power network topology are used to build the system model and the controller design. Then, a linear output feedback controller is adopted. With a suitable Lyapunov function and by solving the linear matrix inequality, the parameters of the controller are tuned by the H∞ synthesis method. Finally, numerical simulations are presented on a Western Systems Coordinating Council three-generator nine-bus power system, validating the proposed design.

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“…The proportional integral (PI) control strategy , is a widely used method. Some of the other types of control methodologies are fuzzy PI controllers , loop shaping controllers , and single value zero cancellation techniques , Lyapunov based methods , and so on. Most of the control methodologies addressed above are simple to design and provide damping for different multimodal oscillations exhibited between the generators.…”

Section: Introductionmentioning

confidence: 99%

Adaptive Non‐Linear Control of UPFC for Stability Enhancement in a Multimachine Power System Operating with a DFIG Based Wind Farm

Routray

Patnaik

Dash

2017

Asian Journal of Control

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An instantaneous converter power based adaptive second order sliding mode control for the Unified Power Flow Controller (UPFC) in a multimachine power system penetrated with a doubly fed induction generator (DFIG) based wind farm is proposed in this paper. Instead of controlling the direct and quadrature‐axis currents of the series voltage source converter (VSC) of the UPFC, the instantaneous active and reactive power outputs are used as control variables. This mode of control dispenses the unmodelled dynamics of the VSC phase‐locked loop (PLL) system and produces a robust control for the active–reactive power, and DC voltage excursions. However, the PLL is used only to obtain the frequency component needed to generate the Pulse Width Modulation (PWM) signal. In comparison to the first order sliding surface, the second order sliding surface provides very good robustness features, finite reaching time, and chattering free sliding mode behavior. Further, the proposed controller gains of the UPFC are chosen in accordance with the various constraints imposed by the second order sliding mode approach to provide significantly superior and robust performance for a number of diverse operating conditions of the network in comparison to the conventional sliding mode controller.

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A simplified nonlinear controller for transient stability enhancement of multimachine power systems using SSSC device

Cited by 31 publications

References 17 publications

Power System Stability Analysis of SMIB with FOPID using Cuckoo Search Optimized Differential Evaluation

Power System Stability Analysis of SMIB with FOPID using Cuckoo Search Optimized Differential Evaluation

Multi‐Agent Method Based H∞ Supplementary Turbine/Governor Control to Enhance Power System Stability

Adaptive Non‐Linear Control of UPFC for Stability Enhancement in a Multimachine Power System Operating with a DFIG Based Wind Farm

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