IEEE Transactions on Power Systems · 2000 · 270 citations · 10 references
EngineeringElectrical EngineeringEnergy SystemsOptimizationRenewable Energy SystemsEnergy System ModelingNodal AnalysisPower Grid AnalysisPower QualityPower System DesignPower SystemsElectric Power System ModelingLoad Flow AnalysisNewton-raphson OptimizationPower Flow AnalysisPower System ModelingPower System ModellingState VariablesStatic Var Compensation
Advanced load flow models for the static VAr compensator (SVC) are presented in this paper. The models are incorporated into existing load flow (LF) and optimal power flow (OPF) Newton algorithms. Unlike SVC models available in open literature the new models depart from the generator representation of the SVC and are based instead on the variable shunt susceptance concept. In particular, a SVC model which uses the firing angle as the state variable provides key information for cases when the load flow solution is used to initialize other power system applications, e.g., harmonic analysis. The SVC state variables are combined with the nodal voltage magnitudes and angles of the network in a single frame-of-reference for a unified, iterative solution through Newton methods. Both algorithms, the LF and the OPF exhibit very strong convergence characteristics, regardless of network size and the number of controllable devices. Results are presented which demonstrate the prowess of the new SVC models.
10
Introduction to linear and nonlinear programming
E. Polak · IEEE Transactions on Automatic Control · 1974 · 2.1K citations
Optimal Power Flow By Newton Approach
David Sun, Bruce Ashley, Brian Brewer et al. · IEEE Transactions on Power Apparatus and Systems · 1984 · 945 citations
Dimitri P. Bertsekas · Automatica · 1976 · 344 citations
Reactive Power Control in Electric Systems
J.P. Bickford · Electronics and Power · 1983 · 280 citations