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9780817642129

Stability of Time-Delay Systems

by ; ; ;
  • ISBN13:

    9780817642129

  • ISBN10:

    0817642129

  • Format: Hardcover
  • Copyright: 2003-08-01
  • Publisher: Birkhauser

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Summary

For both their theoretical and practical impact, time-delay systems have been an enduring theme in the study of differential equations, stochastic processes, game theory, and systems theory. The subject has broad applications to a number of areas, including mechanical, electrical and chemical engineering, mathematics, biology, and economics.This book is a self-contained, coherent presentation of the background and progress of the stability of time-delay systems. Focusing on techniques, tools, and advances in numerical methods and optimization algorithms, the authors develop material, which up until now, has been scattered in technical journals and conference proceedings. Special emphasis is placed on systems with uncertainty and stability criteria which can be computationally implemented.Features and Topics:* Systematic and comprehensive coverage of robust stability for time-delay systems, including time-domain and frequency-domain approaches* Stability criteria formulated using linear matrix inequalities (LMI), providing a powerful toolbox for practicing engineers* Strong stability conditions developed to provide a solid basis for design of feedback control and filtering* Balance of intuition and rigor, stressing concepts rather than technical details* Emphasis on comparisons and connections among various approaches* Mathematical prerequisites integrated within each chapter, with more elementary material covered in two appendicesRequiring only basic knowledge of linear systems and Lyapunov stability theory, Stability of Time-Delay Systems will be accessible to a broad audience of researchers, professional engineers, and graduate students. It may be used for self-study or as a reference; portions of the text may be used in advanced graduate courses and seminars.

Table of Contents

Preface xiii
Notation xix
Introduction to Time-Delay Systems
1(28)
Introduction
1(4)
A simple time-delay system
5(3)
Functional differential equations
8(2)
Stability of time-delay systems
10(5)
Stability concept
10(1)
Lyapunov-Krasovskii Theorem
11(2)
Razumikhin Theorem
13(2)
Linear systems
15(2)
Linear time-invariant systems
17(3)
Neutral time-delay systems
20(2)
Outline of the text
22(3)
Notes
25(4)
A brief historic note
25(1)
Application examples
26(1)
Analysis of time-delay systems
27(2)
I Frequency Domain Approach
29(116)
Systems with Commensurate Delays
31(38)
Introduction
31(3)
Some classical stability tests
34(10)
2-D stability tests
34(2)
Pseudo-delay methods
36(2)
Direct method
38(6)
Frequency-sweeping tests
44(11)
Constant matrix tests
55(12)
Notes
67(2)
Classical results
67(1)
Frequency-sweeping and constant matrix tests
68(1)
Systems with Incommensurate Delays
69(48)
Introduction
69(1)
Small gain/ μ theorem
70(9)
Small gain theorem
70(7)
Structured singular value
77(2)
Frequency-sweeping conditions
79(8)
Computational complexity analysis
87(9)
Basic complexity concepts
88(2)
Proof of NP-hardness
90(6)
Sufficient stability conditions
96(10)
Systems of one delay
96(7)
Systems of multiple delays
103(3)
Neutral delay systems
106(7)
Summary
113(1)
Notes
114(3)
Small gain theorem and μ
114(1)
Stability of systems with incommensurate delays
114(1)
Complexity issues
115(1)
Sufficient conditions and neutral systems
115(2)
Robust Stability Analysis
117(28)
Uncertain systems
117(1)
Characteristic quasipolynomial
117(2)
Zeros of a quasipolynomial
119(6)
Exponential diagram
120(2)
Potential diagram
122(3)
Uncertain quasipolynomial
125(4)
Value set
126(1)
Zero exclusion principle
126(3)
Edge Theorem
129(6)
Stability of an edge subfamily
132(2)
Interval quasipolynomial
134(1)
Multivariate polynomial approach
135(9)
Multivariate polynomials
136(1)
Stable polynomials
137(3)
Stability of an interval multivariate polynomial
140(2)
Stability of a diamond family of multivariate polynomials
142(2)
Notes
144(1)
II Time Domain Approach
145(128)
Systems with Single Delay
147(50)
Introduction
147(4)
Delay-independent stability criteria based on the Razumikhin Theorem
151(5)
Single delay case
151(3)
Distributed delay case
154(2)
Simple delay-dependent stability criteria based on the Razumikhin Theorem
156(13)
Model transformation
157(1)
Simple delay-dependent stability criteria using explicit model transformation
158(2)
Additional dynamics
160(5)
Simple delay-dependent stability criteria using implicit model transformation
165(4)
Delay-independent stability criteria based on the Lyapunov-Krasovskii Stability Theorem
169(3)
Systems with single delay
169(2)
Systems with distributed delays
171(1)
Delay-dependent stability criteria using a simple Lyapunov-Krasovskii functional
172(3)
Stability criteria using explicit model transformation
172(1)
Stability criteria using implicit model transformation
173(2)
Complete quadratic Lyapunov-Krasovskii functional
175(7)
Introduction
175(2)
Fundamental solution and matrix Uw(τ)
177(2)
Lyapunov-Krasovskii functionals
179(3)
Discretized Lyapunov functional method for systems with single delay
182(11)
Introduction
182(1)
Discretization
183(2)
Lyapunov-Krasovskii functional condition
185(3)
Lyapunov-Krasovskii derivative condition
188(3)
Stability criterion and examples
191(2)
Notes
193(4)
Results based on the Razumikhin Theorem
193(1)
Model transformation and additional dynamics
194(1)
Lyapunov-Krasovskii method
194(3)
Robust Stability Analysis
197(36)
Introduction
197(1)
Uncertainty characterization
197(10)
Polytopic uncertainty
198(1)
Subpolytopic uncertainty
199(2)
Norm-bounded uncertainty
201(4)
Block-diagonal uncertainty
205(2)
Robust stability criteria based on the Razumikhin Theorem
207(6)
Delay-independent stability for systems with single delay
207(2)
Delay-independent stability criteria for systems with distributed delays
209(2)
Delay-dependent stability criteria with explicit model transformation
211(2)
Delay-independent stability criteria using the Lyapunov-Krasovskii functional
213(6)
Systems with single delay
213(5)
Systems with distributed delays
218(1)
Delay-dependent stability criteria using simple Lyapunov-Krasovskii functional
219(5)
Complete quadratic Lyapunov-Krasovskii functional approach
224(3)
Discretized Lyapunov functional method for systems with single delay
227(4)
General case
227(2)
Norm-bounded uncertainty
229(2)
Notes
231(2)
Uncertainty characterization
231(1)
Stability results based on the Razumikhin Theorem and Lyapunov-Krasovskii functional
232(1)
Systems with Multiple and Distributed Delays
233(40)
Introduction
233(1)
Delay-independent stability criteria of systems with multiple Delays
234(1)
Simple delay-dependent stability criteria of systems with multiple delays
235(3)
Complete quadratic functional for general linear systems
238(3)
Discretized Lyapunov functional method for systems with multiple delays
241(19)
Problem setup
242(2)
Discretization
244(2)
Lyapunov-Krasovskii functional condition
246(5)
Lyapunov-Krasovskii derivative condition
251(7)
Stability condition and examples
258(2)
Discretized Lyapunov functional method for systems with distributed delays
260(11)
Problem statement
261(1)
Discretization
262(1)
Lyapunov-Krasovskii functional condition
263(2)
Lyapunov-Krasovskii derivative condition
265(5)
Stability criterion and examples
270(1)
Notes
271(2)
III Input-Output Approach
273(36)
Input-Output Stability
275(34)
Introduction
275(1)
Input-output stability
276(3)
Method of comparison systems
279(8)
Problem setup
279(2)
Frequency domain approach
281(3)
Time domain approach
284(3)
Scaled small gain problem
287(5)
Robust stability under dynamical uncertainty
292(4)
Problem setup
292(1)
Uncertainty characterization
293(2)
Robust small gain problem
295(1)
Approximation of delay elements
296(11)
Approximation of time-varying delay
296(3)
Approximation of distributed delays
299(4)
Approximation by multiple delays
303(4)
Notes
307(2)
A Matrix Facts
309(6)
Notation
309(1)
Determinant
310(1)
Eigenvalue problems
310(2)
Singular value decomposition
312(1)
Norms
312(2)
Matrix measure
314(1)
Kronecker product and sum
314(1)
Notes
314(1)
B Linear Matrix Inequalities and Quadratic Integral Inequalities
315(12)
Basic LMI problem
315(1)
GEVP
316(2)
Transforming nonlinear matrix inequalities to LMI form
318(1)
S-procedure
319(1)
Elimination of matrix variables
319(3)
Quadratic integral inequalities
322(2)
Notes
324(3)
Bibliography 327(24)
Index 351

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