Regional Pole Placement
Kang‐Zhi Liu, Yao Yu
Abstract
Kang‐Zhi Liu, Yao Yu
Abstract
In conventional modern control theory, as the model uncertainty is not taken into consideration, the so-called pole placement is to place the poles to fixed points in the complex plane. In addition, from the viewpoint of robust performance, the response quality of the closed-loop system is guaranteed if the closed-loop poles can be locked in a prescribed region. This chapter discusses this issue for the nominal system and then extends to the regional pole placement of uncertain systems. It considers how to place the system poles so as to achieve a satisfactory transient response. The chapter also considers a second-order system with distinct eigen values and discusses how to design a feedback controller to place the poles of closed-loop system in a specified LMI region. It analyzes the condition for all poles of a parametric system being placed in a designated LMI region.
OpenAlex reports 1 citations for this work. Citation counts describe recorded attention and do not establish research quality.
A contribution statement is not available in the OpenAlex record.
Method details are not available in the OpenAlex metadata.
Findings are not separately available in the OpenAlex metadata.
Limitations are not available in the OpenAlex metadata.
Application details are not available in the OpenAlex metadata.
In conventional modern control theory, as the model uncertainty is not taken into consideration, the so-called pole placement is to place the poles to fixed points in the complex plane. In addition, from the viewpoint of robust performance, the response quality of the closed-loop system is guaranteed if the closed-loop poles can be locked in a prescribed region. This chapter discusses this issue for the nominal system and then extends to the regional pole placement of uncertain systems. It considers how to place the system poles so as to achieve a satisfactory transient response. The chapter also considers a second-order system with distinct eigen values and discusses how to design a feedback controller to place the poles of closed-loop system in a specified LMI region. It analyzes the condition for all poles of a parametric system being placed in a designated LMI region.
Key concepts: Full state feedback, Control theory (sociology), Closed-loop pole, Controller (irrigation), Complex plane, Parametric statistics, Pole–zero plot, Closed loop