Application of particle swarm optimization technique and its variants to generation expansion planning problem
S Kannan, SMR Slochanal, P Subbaraj… - Electric Power Systems …, 2004 - Elsevier
S Kannan, SMR Slochanal, P Subbaraj, NP Padhy
Electric Power Systems Research, 2004•ElsevierThis paper presents the application of particle swarm optimization (PSO) technique and its
variants to least-cost generation expansion planning (GEP) problem. The GEP problem is a
highly constrained, combinatorial optimization problem that can be solved by complete
enumeration. PSO is one of the swarm intelligence (SI) techniques, which use the group
intelligence behavior along with individual intelligence to solve the combinatorial
optimization problem. A novel 'virtual mapping procedure'(VMP) is introduced to enhance …
variants to least-cost generation expansion planning (GEP) problem. The GEP problem is a
highly constrained, combinatorial optimization problem that can be solved by complete
enumeration. PSO is one of the swarm intelligence (SI) techniques, which use the group
intelligence behavior along with individual intelligence to solve the combinatorial
optimization problem. A novel 'virtual mapping procedure'(VMP) is introduced to enhance …
This paper presents the application of particle swarm optimization (PSO) technique and its variants to least-cost generation expansion planning (GEP) problem. The GEP problem is a highly constrained, combinatorial optimization problem that can be solved by complete enumeration. PSO is one of the swarm intelligence (SI) techniques, which use the group intelligence behavior along with individual intelligence to solve the combinatorial optimization problem. A novel ‘virtual mapping procedure’ (VMP) is introduced to enhance the effectiveness of the PSO approaches. Penalty function approach (PFA) is used to reduce the number of infeasible solutions in the subsequent iterations. In addition to simple PSO, many variants such as constriction factor approach (CFA), Lbest model, hybrid PSO (HPSO), stretched PSO (SPSO) and composite PSO (C-PSO) are also applied to test systems. The differential evolution (DE) technique is used for parameter setting of C-PSO. The PSO and its variants are applied to a synthetic test system of five types of candidate units with 6- and 14-year planning horizon. The results obtained are compared with dynamic programming (DP) in terms of speed and efficiency.
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