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E-raamat: Finite-Spectrum Assignment for Time-Delay Systems

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The presence of considerable time delays in many industrial processes is well recognized and achievable performances of conventional unity feedback control systems are degraded if a process has a relatively large time delay compared to its time constants. In this case, dead time compensation is necessary in order to enhance the performances. The most popular scheme for such compensation is the Smith Predictor, but it is unsuitable for unstable or lightly damped processes because the compensated closed-loop system always contains the process poles themselves. An alternative scheme for delay elimination from the closed-loop is the finite spectrum assignment (FSA) strategy and it can arbitrarily assign the closed-loop spectrum. One may note that the Smith­ Predictor Control can be found in delay systems control books and many process control books, but the FSA control is rarely included in these books. It is therefore timely and desirable to fill this gap by writing a book which gives a comprehensive treatment of the FSA approach. This is useful and worthwhile since the FSA provides not only an alternative way but also certain advantages over the Smith-Predictor. The book presents the state-of-the-art of the finite spectrum assignment for time-delay systems in frequency domain. It mainly contains those works carried out recently by the authors in this field. Most of them have been published and others are awaiting publication. They are assembled together and reorganized in such a way that the presentation is logical, smooth and systematic.

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Springer Book Archives
Time-Delay Systems
1(6)
Introduction
1(1)
Control of Time-Delay Systems
1(2)
Smith-Predictor Control
2(1)
Finite Spectrum Assignment
3(1)
Practical Issues
3(2)
Automatic Tuning
3(1)
Continuous Self-Tuning
4(1)
Model Uncertainty and Controller Robustness
4(1)
Real-Time Experimental Setup
5(2)
Process Simulator
5(1)
Coupled-Tanks System
5(2)
FSA Algorithms Development
7(19)
Basic FSA Algorithm
7(4)
Processes with Multiple Poles
11(4)
Multivariable Processes
15(4)
Tracking and Regulation
19(6)
Problems
25(1)
Closed-loop Process Identification
26(47)
Introduction
26(2)
Basic Relay
28(2)
Relay with Bias
30(12)
Characteristics of Relay Oscillations
30(4)
Transfer Function Modelling
34(6)
A Special Case
40(2)
Relay Cascaded with a Nonlinear Mapping
42(12)
Improved Estimation Accuracy
42(7)
Estimation of a General Point
49(3)
Estimation of Multiple Points
52(2)
Use of Relay Transients
54(10)
The Method
55(4)
Simulation Study
59(5)
Frequency Response--Transfer Function Conversions
64(7)
Single and Multiple Lag Processes
65(2)
Second-order Modelling
67(2)
First-order Unstable Process with Time-delay
69(2)
Problems
71(2)
Controller Design and Tuning
73(26)
Controller Design
73(1)
Auto-tuning
74(6)
Continuous Self-tuning
80(15)
Process Estimation from Load Disturbance Response
81(7)
PID Adaptation
88(6)
FSA Adaptation
94(1)
Conclusion
95(1)
Unstable Processes
95(3)
Problems
98(1)
Robustness Analysis and Design
99(13)
Practical Stability
99(6)
Robust Stability
105(1)
Performance Robustness
106(2)
Robust Controller Design for First-Order Systems
108(3)
Problems
111(1)
References 112