首页> 外文期刊>Optik: Zeitschrift fur Licht- und Elektronenoptik: = Journal for Light-and Electronoptic >Stability improvement in solar PV integrated power system using quasi-differential search optimized SVC controller
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Stability improvement in solar PV integrated power system using quasi-differential search optimized SVC controller

机译:使用准差分搜索优化SVC控制器的太阳能光伏集成电力系统的稳定性改进

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摘要

In this paper, the simulation results of static var compensator (SVC) for improvement of transient stability in a photo voltaic (PV) system integrated power system are presented. A Proportional Integral Derivative (PID) controller was also incorporated with SVC for contributing necessary damping in case of various disturbance conditions. Here, the dynamic stability of the PV based power system was studied in single machine infinite bus (SMIB) and power system. SVC is integrated with the above PV based power system for damping low frequency oscillations produced due to disturbances in the power system. Further a novel soft computing based approach called quasi oppositional differential search algorithm (QODSA) was for designing an optimal SVC-PID based damping controller. Initially DSA was applied for optimizing the gains of the controller and finally quasi oppositional learning was incorporated to DSA for obtaining the optimal parameters of SVC-PID controller and also for enhancing the convergence speed. The effectiveness of the proposed technique was also tested with particle swarm optimization (PSO) technique. Transient stability analysis for conventional PID controller, PSO based PID controller, DSA based PID controller and QDSA based PID controller was done analytically as well as quantitatively. It can be observed from the simulation results that the proposed QDSA based PID controller outperforms over other techniques in improving power system stability and also damping low frequency oscillations.
机译:本文介绍了静态VAR补偿器(SVC)的仿真结果,用于改善光伏(PV)系统集成电力系统中的瞬态稳定性。成比例积分衍生物(PID)控制器也结合到SVC,用于在各种干扰条件下提供必要的阻尼。这里,在单机无限总线(SMIB)和电力系统中研究了PV基功率系统的动态稳定性。 SVC与上述PV基功率系统集成,用于阻尼由于电力系统中的干扰导致的低频振荡。此外,一种名为准反对差分搜索算法(QoDSA)的新型软计算方法用于设计最佳的SVC-PID的阻尼控制器。最初的DSA被应用用于优化控制器的增益,并且最后将准反对学习纳入DSA,以获得SVC-PID控制器的最佳参数,并且还用于提高收敛速度。粒子群优化(PSO)技术还测试了所提出的技术的有效性。传统PID控制器的瞬态稳定性分析,基于PED的PID控制器,基于基于的PID控制器和基于QDSA的PID控制器进行了分析和定量完成的。从模拟结果可以观察到所提出的基于QDSA的PID控制器在提高电力系统稳定性和阻尼低频振荡中的其他技术方面优于其他技术。

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