Abstract
In this paper, heuristic optimization techniques, such as integrated particle swarm optimization (IPSO), teaching--learning-based optimization (TLBO), and Jaya optimization, were applied effectively for the first time to optimize the radial distribution network (RDN) by simultaneously considering reconfiguration of the network and allocation and sizing of the distributed generations (DG). The objectives were to maximize the voltage stability and to minimize the power loss of the network without violating the system constraints. In standard PSO technique, the movement of current particle depends upon global best position and its own best position up to current step. However, if the particle lies too close to any of these positions, the guiding role highly decreases and even vanishes. To resolve this problem and to find the global best solution, IPSO was utilized to optimize the network reconfiguration and DG allocation and sizing problem in the RDN. Also, the optimization techniques, such as TLBO and Jaya optimization, which do not require any tuning of parameters, unlike other heuristic optimization techniques, were implemented successfully in this paper. Seven test cases were generated from different combinations of network reconfiguration and DG allocation and sizing. Moreover, for comparison, the optimization techniques, such as particle swarm optimization (PSO), adaptive cuckoo search algorithm (ACSA), harmony search algorithm (HSA), and fireworks algorithm (FWA), were also applied to IEEE 33- and 69-bus distribution test networks. The comparison results prove overall superiority of Jaya optimization when applied on the two IEEE bus systems with seven test cases undertaken.
Highlights
Network reconfiguration is considered as nonlinear, mixed integer, nondifferentiable, multiobjective constraint optimization problem
In [7], the reconfiguration problem was solved using a hybrid algorithm based on particle swarm optimization (PSO) and honey bee mating optimization (HBMO) with an objective to minimize power loss, fluctuation in node voltage, number of switching operation and to balance loads among the feeders
Metaheuristic optimization techniques, such as harmony search algorithm (HSA) [25], fireworks algorithm (FWA) [26], integrated gravitational search algorithm (IGSA)[27], PSO [28], and ant colony optimization (ACO) [29], have been applied to optimize the network reconfiguration and distributed generation (DG) sizing with the objective to minimize power loss and enhance voltage stability
Summary
Network reconfiguration is considered as nonlinear, mixed integer, nondifferentiable, multiobjective constraint optimization problem. Some researchers have integrated both DG allocation and DNR problem to optimize the efficiency of distribution network Metaheuristic optimization techniques, such as harmony search algorithm (HSA) [25], fireworks algorithm (FWA) [26], integrated gravitational search algorithm (IGSA)[27], PSO [28], and ACO [29], have been applied to optimize the network reconfiguration and DG sizing with the objective to minimize power loss and enhance voltage stability. For the first time, new heuristic optimization techniques such as IPSO, TLBO, and Jaya algorithm have been utilized for voltage stability enhancement and power loss minimization in the radial distribution network by simultaneous reconfiguration of the network and DG allocation and sizing. The test results on IEEE 33- and 69-bus distribution test system shows the superiority of the Jaya algorithm followed by ACSA over other optimization techniques, i.e. PSO, IPSO, TLBO, HSA and FWA
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