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Load frequency control of interconnected power system using grey wolf optimization

机译:基于灰狼优化的互联电力系统负荷频率控制

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摘要

In this article an attempt has been made to solve load frequency control (LFC) problem in an interconnected power system network equipped with classical PI/PID controller using grey wolf optimization (GWO) technique. Initially, proposed algorithm is used for two-area interconnected non-reheat thermal thermal power system and then the study is extended to three other realistic power systems, viz. (i) two area multi-units hydro-thermal, (ii) two-area multi-sources power system having thermal, hydro and gas power plants and (iii) three-unequal-area all thermal power system for better validation of the effectiveness of proposed algorithm. The generation rate constraint (GRC) of the steam turbine is included in the system modeling and dynamic stability of aforesaid systems is investigated in the presence of GRC. The controller gains are optimized by using GWO algorithm employing integral time multiplied absolute error (ITAE) based fitness function. Performance of the proposed GWO algorithm has been compared with comprehensive learning particle swarm optimization (CLPSO), ensemble of mutation and crossover strategies and parameters in differential evolution (EPSDE) and other similar meta-heuristic optimization techniques available in literature for similar test system. Moreover, to demonstrate the robustness of proposed GWO algorithm, sensitivity analysis is performed by varying the operating loading conditions and system parameters in the range of 50%. Simulation results show that GWO has better tuning capability than CLPSO, EPSDE and other similar population-based optimization techniques. (C) 2015 Elsevier B.V. All rights reserved.
机译:在本文中,已尝试使用灰狼优化(GWO)技术解决装有经典PI / PID控制器的互连电源系统网络中的负载频率控制(LFC)问题。最初,将所提出的算法用于两区域互联的非再热热电火力系统,然后将研究扩展到其他三个现实的电力系统,即。 (i)两个区域的多机组水力发电系统,(ii)具有火力,水力和天然气发电站的两个区域的多源电力系统,以及(iii)更好地验证有效性的三个不等面积的全部火电系统提出的算法。系统建模中包括了汽轮机的发电率约束(GRC),并在存在GRC的情况下研究了上述系统的动态稳定性。通过使用GWO算法优化控制器增益,该算法采用基于积分时间乘以绝对误差(ITAE)的适应度函数。所提出的GWO算法的性能已与综合学习粒子群优化(CLPSO),变异与交叉策略和差分进化参数(EPSDE)以及其他类似的元启发式优化技术在文献中可用于相似的测试系统进行了比较。此外,为了证明所提出的GWO算法的鲁棒性,通过在50%的范围内改变运行负载条件和系统参数来进行灵敏度分析。仿真结果表明,GWO具有比CLPSO,EPSDE和其他类似的基于总体的优化技术更好的调整能力。 (C)2015 Elsevier B.V.保留所有权利。

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