基于流量阀控制和电子负荷控制器的微水电厂频率集成控制

Zulfatman Has, Alwan Zanuar Rosyidi, I. Pakaya, N. Mardiyah, N. Nurhadi, M. Effendy
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引用次数: 4

摘要

频率失稳是微水电厂同步发电的主要问题之一。采用流量阀控制(FVC)和电子负载控制(ELC)的调速器控制是目前应用于MHPP频率控制的常用方法。然而,当负载变化较大时,系统输出仍然存在时间响应慢和总谐波失真(THD)较高的问题。植被覆盖度的时间响应非常慢,但产生的THD较低。相反,ELC的响应速度非常快,但THD相对较高。本研究提出了FVC和ELC的控制技术,以改善时间响应和降低THD水平。FCV采用模糊-比例积分(Fuzzy- pi)控制器控制,以改善时间响应;ELC采用自适应神经模糊推理系统-比例积分微分(anfiss - pid)控制器控制,以减小负载变化对THD水平的影响。ELC电路采用三相整流电路。ELC电路驱动电流通过负载母线到负载镇流器。利用Matlab Simulink对这些集成控制器进行了仿真。仿真结果表明,通过将所提出的控制器分别部署在FVC和ELC上,并将它们集成在一起,可以改善MHPP输出在负载变化时的时间响应和THD。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Integrated Frequency Control of Microhydro Power Plant Based Flow Valve Control and Electronic Load Controller
Frequency instability is one of the main problems in generating Micro-hydro Power Plant (MHPP) with synchronous generator. Governor control using Flow Valve Control (FVC) and Electronic Load Control (ELC) are the common methods that have been applied for MHPP frequency control. However, slow time response and relatively high total harmonic distortion (THD) problems are still exist in the system output when the load vary significantly. FVC is very slow in time response, but produce low THD. In the contrary, ELC very fast in response, but results relatively high THD. This study proposes control techniques for FVC and ELC in order to improve time response and to result a lower THD level. FCV is controlled by Fuzzy-Proportional Integral (Fuzzy-PI) controller to improve the time response, while ELC is improved by Adaptive Neuro Fuzzy Inference System-Proportional Integral Differentia (ANFIS-PID) controller to reduce the load variation effect on THD level. The ELC circuit employs 3 phase rectifier circuit. The ELC circuit is driving current through load bus to load ballast. These integrated controller is simulated by using Matlab Simulink. Results of simulation indicate that by deploying the proposed controller on the FVC and the ELC, respectively and by integrating them all together, the time response and the THD of the MHPP output are improved in the load changes.
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