Robust design of high performance controller for transient stability enhancement of a single machine infinite bus power system

Badal, Faisal R.; Sarker, Subrata; Nayem, Zannatun; Das, Sajal K.

doi:10.1504/ijpec.2021.118030

Cited by 1 publication

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“…However, the probabilistic character of population-based approaches may result in a loss of precision due to overestimating control benefts. Recently, linearized model-based techniques, such as optimum control and direct adaptive control, have been employed to provide high bandwidth and resilient performance in the presence of uncertainties (see [13][14][15][16][17]). Meanwhile, adaptive robust control design sometimes requires more than a linearized system model can provide.…”

Section: Introductionmentioning

confidence: 99%

Coordinate Control for an SMIB Power System with an SVC

Kada

Bensenouci

2023

Applied Computational Intelligence and Soft Computing

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To improve power quality in power systems vulnerable to current disturbances and unbalanced loads, a hybrid control scheme is proposed in the present paper. A hybrid adaptive robust control strategy is devised for an SMIB power system equipped with a static VAR compensator to ensure robust transient stability and voltage regulation (SVC). High-order sliding mode control is combined with a dynamic adaptive backstepping algorithm to form the basis of this technique. To create controllers amenable to practical implementation, this method uses a high-order SMIB-SVC model and introduces dynamic constraints, in contrast to prior approaches. Improved transient and steady-state performances of the turbine steam-valve system are the goals of the dynamic backstepping controller. A Lyapunov-based adaptation law is developed to address the ubiquitous occurrence of parametric and nonparametric uncertainty in electrical power transmission systems due to the damping coefficient, unmodeled dynamics, and external disturbance. High-order sliding mode (HOSM) control is used for generator excitation and SVC devices to construct finite-time controllers. The necessary derivatives for HOSM control are calculated using high-order numerical differentiators to prevent simulation instability and convergence issues. Simulations demonstrate that the suggested method outperforms conventionally coordinated and hybrid adaptive control schemes regarding actuation efficiency and stability.

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