Strong stability system regulating safety for generalized minimum variance control

A. Yanou, M. Minami, T. Matsuno
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引用次数: 5

Abstract

This paper explores a strong stability system, which regulates safety for generalized minimum variance control (GMVC). GMVC is one of the control methods for application in industry and the controller is designed by generalized output to make the closed-loop system stable. Once the generalized output is designed, the derived controller cannot be re-designed without changing the closed-loop characteristic. For safe applications in industry, it is desirable that both of the closed-loop system and the controller are stable. That is, the strong stability system, which means that both of the closed-loop system and the controller are stable, is desirable to develop the applications. Although authors have proposed the extended GMVC design methods and the strong stability systems by using coprime factorization, there is a problem that the degree of controller may be higher than the conventional method because stable polynomial is needed in order to obtain coprime factorization. Therefore this paper directly extends GMVC without coprime factorization, and a strong stability system regulating safety is studied from the view point of the quantity of feedback signal. Some numerical examples are shown in order to check the characteristic of the proposed method.
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广义最小方差控制的强稳定系统调节安全性
本文研究了广义最小方差控制(GMVC)的强稳定系统。GMVC是工业上应用的控制方法之一,控制器采用广义输出设计,使闭环系统稳定。一旦设计出广义输出,就不能在不改变闭环特性的情况下重新设计派生控制器。为了在工业上的安全应用,希望闭环系统和控制器都是稳定的。也就是说,强稳定性系统,即闭环系统和控制器都是稳定的,是开发应用的理想条件。虽然作者已经提出了扩展的GMVC设计方法和利用协素分解的强稳定性系统,但由于要得到协素分解需要稳定的多项式,因此控制器的程度可能比传统方法要高。因此,本文直接对GMVC进行了扩展,而不需要进行素分解,并从反馈信号量的角度研究了一个调节安全性的强稳定系统。通过数值算例验证了所提方法的特点。
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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