Comparative Study of Temperature Control using Metaheuristic and Non-metaheuristic Controllers

M. K. Tan, K. Yeo, H. Tham, Soo Siang Yang, M. A. Hussain, K. Teo
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引用次数: 1

Abstract

This paper presents a metaheuristic-based temperature controller for an exothermic batch process. Developing a suitable temperature controller for an exothermic process is a challenging task because large amount of heat is released rapidly during the process. The exothermic behavior will further increase the reaction rate and cause more heat to be liberated. As the result, the improper temperature control might cause the reaction becomes unstable and consequently poses safety concern to the plant personnel and equipment. The conventional non-metaheuristic-based controller, such as fuzzy logic requires empirical data or knowledge about the total amount heat released while developing its fuzzy rules and membership functions for precision control. However, the detailed kinetic model of the heat released is unable to be obtained since there are several unobservable parameters during the process, such as the energy held in the reactor and jacket walls. Therefore, particle swarm optimization algorithm (PSO) is proposed as the controller to maintain the reactor temperature at the desired trajectory by manipulating the inlet jacket fluid temperature and flow rate. The simulation results show the proposed PSO produces better performances in terms of minimizing fluctuation in control actions and overshooting as compared with the conventional fuzzy logic controller.
采用元启发式控制器和非元启发式控制器的温度控制比较研究
提出了一种基于元启发式的放热间歇过程温度控制器。为放热过程开发合适的温度控制器是一项具有挑战性的任务,因为在此过程中会迅速释放大量的热量。放热行为将进一步提高反应速率,使更多的热量被释放。因此,温度控制不当可能导致反应变得不稳定,从而给工厂人员和设备带来安全问题。传统的非基于元启发式的控制器,如模糊逻辑,在制定其模糊规则和隶属函数以进行精确控制时,需要经验数据或关于释放热量总量的知识。然而,由于在这一过程中存在一些不可观测的参数,如反应器和夹套壁上的能量,因此无法获得热量释放的详细动力学模型。为此,提出了粒子群优化算法(PSO)作为控制器,通过控制入口夹套流体温度和流量,使反应器温度保持在期望的轨迹上。仿真结果表明,与传统模糊控制器相比,该算法在控制动作波动和超调量方面具有更好的性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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