基于人工智能的模糊多层感知器电力稳定器的MatLab实现

Darya Khan Bhutto, J. Ansari, Halar Zameer
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引用次数: 1

摘要

对自动电压调节器(AVR)的系统研究表明,在励磁系统的有效性中有一个重要的权衡,即AVR具有高增益的快速响应会在电力系统中引起不良的阻尼振荡,从而降低转子转速;为了克服这一问题,电力系统稳定器(PSS)与励磁系统(ES)并联使用,通过注入额外的稳定信号来减少AVR引起的副作用。PSS必须自调谐,以调整参数和管理不同的负载条件。因此,本文主要研究多层感知机(Multilayer Perceptron, MLP)前馈神经网络和模糊逻辑系统控制器对PSS参数进行调谐和调整,以达到更好的增强负载条件下的不稳定性。在本研究中,采用MATLAB/ Simulink对PSS进行了不同控制器的设计。PSS的发展是通过使用不同的控制器,如比例积分器(PI),比例积分器(PID)和基于人工智能(AI)的模糊和MLP控制器来实现的。电压和频率的仿真测试结果表明,在变负载条件下,MLP型PSS在超调峰值最小、稳定时间和上升时间方面都优于PI、PID和Fuzzy PSS。
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Implementation of AI Based Power Stabilizer Using Fuzzy and Multilayer Perceptron In MatLab
Systematic investigation of an Automatic Voltage Regulator (AVR) indicates one significant tradeoff in the effectiveness of Excitation System i.e. rapid response with high gain of the AVR induces undesirable damped oscillations in an Electrical power system, which slow down the rotor speed; To overcome this problem, Power system stabilizer (PSS) is used in parallel with excitation system (ES), by injecting extra stabilizing signals to minimize the side effect induced by AVR. The PSS must be self-tuned for adjusting parameters and managing different loading conditions. Therefore, this work is mainly focused on Multilayer Perceptron (MLP) feed-forward neural network and fuzzy logic system controllers to tune and adjust the PSS parameters to achieve better enhancement instability for varying load conditions. In this research work, PSS is designed with different controllers in MATLAB/ Simulink. The development of the PSS is achieved by using different controllers like ProportionIntegrator (PI), Proportion-Integrator-Differentiator (PID) and Artificial Intelligence (AI) based fuzzy and MLP controller. Simulation test results of Voltage and Frequency show the robustness of MLP type PSS as compared to PI, PID, and Fuzzy PSS in terms of minimized overshoot peak value, settling time and rise time for varying loading conditions.
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