面向快速电力传输和PQ缓解的固态传输开关粒子群优化控制器

Glorria Sebastian, M. Hannan, A. Al-Shetwi, P. Ker, K. Muttaqi, M. Uddin
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引用次数: 1

摘要

本文提出了一种基于模糊逻辑控制器(FLC)的固态转换开关(SSTS)设计方法,以提高模糊逻辑控制器(FLC)在非线性负载谐波条件下的生产率和有效性。利用基于pso的FLC (PSOF)适应度函数对MSE进行优化和减小,提高了系统在短时间内的载荷传递性能。该方法消除了传统的推导隶属函数(mf)的耗时的试错方法。在适应度函数评价结果的基础上,将所建立的自适应模型与输入输出电压误差和电压误差变化率相结合。谐波滤波器用于去除由线性和非线性负载引起的不需要的谐波分量。为了确保所提出的控制系统的工作,研究了使用和不使用PSO的结果。采用粒子群算法对模糊系统进行优化,得到的传输时间分别在100%、50%、25%和10%时减少了约2ms、4.35ms、3.68ms和3.56ms。优化后,100%、50%、25%和10%电压凹陷的总传输时间分别为0.5ms、8.72ms、7.88ms和7.32ms。通过SSTS系统的仿真试验,说明了所开发的FLC的设计过程和精度。结果表明,优化后的模糊控制器在传递时间、检测时间和谐波抑制方面均优于未采用粒子群算法的模糊控制器。
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Particle Swarm Optimised Controller for Solid-State Transfer Switch Towards Fast Power Transfer and PQ Mitigation
This study proposes a solid-state transfer switch (SSTS) using fuzzy logic controller (FLC) design approach for enhancing the productivity and effectiveness of FLCs under harmonics conditions of a non-linear load using particle swarm optimization (PSO). A PSO-based FLC (PSOF) fitness function is also used to optimise and reduce the MSE to enhance the load transfer performance in a short period of time. The PSOF approach eliminates the time-consuming conventional trial-and-error method of deriving membership functions (MFs). Based on the fitness function evaluation findings, the created adaptive MFs are incorporated into voltage error and rate of change of voltage error for input and output. A harmonic filter is used to remove unwanted harmonic components induced by linear and nonlinear loads. To make sure the proposed control system works, the results are looked at both with and without PSO. The obtained transfer times were reduced by about 2ms, 4.35ms, 3.68ms and 3.56ms for 100%, 50%, 25% and 10% respectively, by optimising the fuzzy based system with PSO. Optimisation resulted in a total transfer time of 0.5ms, 8.72ms, 7.88ms and 7.32ms for 100%, 50%, 25% and 10% voltage sag, respectively. The design procedure and accuracy of the developed FLC are illustrated and investigated via simulation tests for the SSTS system. Results show that the optimised fuzzy controller is better than those obtained without the PSO algorithm in all tested cases in terms of transfer time and detection time and harmonic reduction.
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