M. Abdelbaky, H. Emara, M. El-Hawwary, A. Bahgat, Xiangjie Liu
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引用次数: 3
摘要
一般来说,PID控制器在工业过程中应用广泛,实用性强。同时,分数阶PID (P $I^{\lambda}D^{\mu}$或FOPID)控制器是PID控制器的自然扩展。在本研究中,FOPID控制器的实现是在工业分布式控制系统中执行的,用于控制实验室单元的液位。在ABB-DCS软件中建立了一个用户定义的功能块,使FOPID控制器的实现成为可能。为了创建这个新的功能块,首先提出了一种FOPID控制器离散化方法,并用于得到离散形式。使用FOPID和传统PID控制器的系统响应比较通过仿真(使用粒子群优化和遗传算法)和实验(使用实验装置)完成。该实验装置由控制器(ABB-DCS AC 700F2)和装置(Lab-Volt Level-Process Station)组成,前者通过以太网电缆连接到台式计算机,后者连接到DCS的模拟模块。通过与经典PID和传统FOPID控制器的比较,表明了先进FOPID控制器在系统响应方面的相对发展。
Implementation of Fractional-order PID Controller Using Industrial DCS with Experimental Validation
Generally, the PID controllers are used profusely in industrial processes and highly practical. Simultaneously, the Fractional-order PID (P $I^{\lambda}D^{\mu}$ or FOPID) controller is a natural extension of the PID controller. In this study, the FOPID controller’s implementation is performed in an industrial distributed-control system used here to control a laboratory unit’s level. A user-defined function block in ABB-DCS software is built to make the FOPID controller implementation possible. In order to create this new function block, one of the FOPID controller discretization methods is first presented and used for getting the discrete form. A system response’s comparisons using FOPID and the conventional PID controller are accomplished via simulation (using a particle swarm optimization and genetic algorithms) and experimentally (using the experimental setup). This experimental setup consists of the controller (ABB-DCS AC 700F2), which is connected to a desktop computer via ethernet cable, and the plant (Lab-Volt Level-Process Station), which is connected to the analog module of the DCS. A relative development in system response is shown in the results using the advanced FOPID controller comparison with classical PID and traditional FOPID controllers.