2021
DOI: 10.3390/computers10110151
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Solution of the Optimal Reactive Power Flow Problem Using a Discrete-Continuous CBGA Implemented in the DigSILENT Programming Language

Abstract: The problem of the optimal reactive power flow in transmission systems is addressed in this research from the point of view of combinatorial optimization. A discrete-continuous version of the Chu & Beasley genetic algorithm (CBGA) is proposed to model continuous variables such as voltage outputs in generators and reactive power injection in capacitor banks, as well as binary variables such as tap positions in transformers. The minimization of the total power losses is considered as the objective performanc… Show more

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Cited by 8 publications
(13 citation statements)
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References 39 publications
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“…Both an AGA and an IABC [53] were developed for mission assignment and path planning in the disaster rescue task. Regarding the mission assignment, the GA-based method [54,55] has been proofed to be the best scheduling method in our former research; thus it is not necessary to consider other techniques for solving this task. Differently, as for the path planning problem, many other optimization methods can be considered, such as the particle swarm optimization (PSO) [56] method, artificial potential field algorithm (APFA) [57], or bat algorithm [58], etc.…”
Section: Discussionmentioning
confidence: 96%
“…Both an AGA and an IABC [53] were developed for mission assignment and path planning in the disaster rescue task. Regarding the mission assignment, the GA-based method [54,55] has been proofed to be the best scheduling method in our former research; thus it is not necessary to consider other techniques for solving this task. Differently, as for the path planning problem, many other optimization methods can be considered, such as the particle swarm optimization (PSO) [56] method, artificial potential field algorithm (APFA) [57], or bat algorithm [58], etc.…”
Section: Discussionmentioning
confidence: 96%
“…It is worth mentioning that the main complication of the optimization model ( 1)-( 11) is its MINLP nature, since binary and continuous variables are combined with nonlinear non-convex relations mainly defined by the power balance equations. To solve MINLP models, in the current literature, the use of master-slave optimization strategies is a popular method to decouple the binary problem from the continuous problem [20]. In the studied problem defined by ( 1)-( 11), the Newton metaheuristic algorithm is used in the master stage and the successive approximation power flow method is used in the slave stage.…”
Section: Model Interpretationmentioning
confidence: 99%
“…Base case PSO [14] MINLP [16] PGS [13] BFOA [10] Optimal size (bus) -300 ( 4) 600 ( 10) 781 (19) 100 ( 14) 1200 ( 19) 625 ( 10) 803 (22) 500 ( 18) 639 ( 22) 940 ( 20) 479 (20) 300 ( 22) 200 ( 20) 610 ( 25) 1000 ( 27 The information concerning branch parameters and load consumptions for the IEEE 34-node test feeder were reported in Table 1. In all the computational validations, 11 kV and 1000 kVA were considered as voltage and power bases for this system, respectively.…”
Section: Woa Based Approach For Placing Capacitors Network To Reduce ...mentioning
confidence: 99%
“…Regarding the selection of the classical Chu and Beasley genetic algorithm (CBGA) and its discrete-continuous version of codification, which helps solve the problem of the optimal location and sizing of PV sources with a unified vector: it is important to say that this optimization algorithm was selected to solve the proposed MINLP model, as it is a widely known model and is used to solve complex optimization problems with efficient numerical performance and low computational effort. Moreover, the discrete-continuous version of the CBGA has recently yielded satisfactory results for the optimal reactive compensation problems, as reported in [19] for static compensators and in [31] for optimal reactive power flow in transmission systems.…”
mentioning
confidence: 93%