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9780817642570

Foundations of Deterministic and Stochastic Control

by
  • ISBN13:

    9780817642570

  • ISBN10:

    0817642579

  • Format: Hardcover
  • Copyright: 2002-06-01
  • Publisher: Birkhauser

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Summary

Control theory has applications to a number of areas in engineering and communication theory. This introductory text on the subject is fairly self-contained and aimed primarily at advanced mathematics and engineering students in various disciplines. The topics covered include realization problems, linear-quadratic optimal control, stability theory, stochastic modeling and recursive estimation algorithms in communications and control, and distributed system modeling. These topics have a wide range of applicability, and provide background for further study in the control and communications areas. In the early chapters the basics of linear control systems as well as the fundamentals of stochastic control are presented in a unique way so that the methods generalize to a useful class of distributed parameter and nonlinear system models. The control of distributed parameter systems (systems governed by PDEs) is based on the framework of linear quadratic Gaussian optimization problems. The approach here utilizes methods based on Wiener-Hopf integral equations. Additionally, the important notion of state space modeling of distributed systems is examined. Basic results due to Gohberg and Krein on convolution are given and many results are illustrated with some examples that carry throughout the text. The standard linear regulator problem is studied in both the continuous and discrete time cases, followed by a discussion of the (dual) filtering problems. Later chapters treat the stationary regulator and filtering problems with a Wiener-Hopf approach. This leads to spectral factorization problems and useful iterative algorithms that follow naturally from the methods employed. The interplay between time and frequency domain approaches is emphasized.

Table of Contents

Preface vii
State Space Realizations
1(70)
Linear Models
1(4)
Continuous Time
2(2)
Discrete Time
4(1)
Realizations
5(26)
Controllability
6(3)
Controllability and Reachability
9(2)
Observability
11(3)
Minimal Realizations
14(8)
Time Invariant Problems
22(9)
Constructing Time Invariant Realizations
31(14)
Jordan Form Realizations
32(4)
Minimality
36(1)
Companion Realizations
37(1)
Standard Controllable Realizations
37(4)
Standard Observable Realizations
41(4)
An Active Suspension Model
45(4)
A Model Identification Problem
49(8)
Measurements and Filtering
49(2)
Recursive Least Squares
51(3)
Identifying a Coupled Equation Model
54(1)
Coupled Problem Formulation
55(2)
Simulating Recursive Identification
57(1)
Discrete Time Models
58(13)
Discrete Realizations
60(3)
Discrete Time Identification
63(1)
Problems
64(7)
Least Squares Control
71(38)
Minimum Energy Transfers
72(2)
The Output Regulator
74(20)
Form of the Optimal Cost
74(2)
Completing the Square
76(3)
Riccati Equation Existence
79(2)
Algebraic Riccati Equation Properties
81(3)
Riccati Solutions and Canonical Equations
84(3)
Discrete Time Output Regulator
87(3)
Stationary Riccati Equations
90(4)
Linear Regulator Tracking Problems
94(8)
Continuous Problem Models
95(1)
The Continuous Optimal Tracking Control
95(4)
Discrete Time Tracking Model
99(1)
Discrete Time Optimal Tracking Control
99(3)
Dynamic Programming
102(7)
Problems
105(4)
Stability Theory
109(42)
Introduction
109(1)
Introduction to Lyapunov Theory
109(2)
Definitions
111(5)
Lyapunov Functions
111(2)
Notions of Stability
113(3)
Classical Lyapunov Theorems
116(7)
Time Invariant Models
119(2)
Perturbation Results
121(2)
The Invariance Approach
123(9)
Discrete Time Systems
124(6)
Continuous Time Models
130(2)
Input-Output Stability
132(19)
Frequency Domain Criteria
132(3)
Vector Spaces, Norms, and Input-Output Models
135(3)
Convolution Systems: Nyquist Criterion
138(4)
The Circle Theorem
142(5)
Problems
147(4)
Random Variables and Processes
151(34)
Introduction
151(1)
Random Variables
151(2)
Sample Spaces and Probabilities
153(1)
Densities
154(1)
Expectations, Inner Products and Variances
154(3)
No Densities?
156(1)
Linear Minimum Variance Estimates
157(2)
Gramians and Covariance Matrices
159(1)
Random Processes
160(14)
Means and Correlations
162(1)
Vector Processes
163(2)
Stationarity
165(2)
Linear Systems
167(3)
Stationary Processes and LTI Filters
170(4)
Gaussian Variables
174(11)
Gaussian Vectors
174(3)
Conditional Probability
177(1)
Conditional Expectations
177(2)
Gaussian Conditional Expectations
179(2)
Problems
181(4)
Kalman-Bucy Filters
185(16)
The Model
185(1)
Estimation Criterion
186(1)
Easy Non-Answer
186(1)
The One Step Predictor
187(14)
Derivation of the Optimal Filter
188(5)
Boundedness of the Optimal Filter
193(2)
Stability of the Optimal Filter
195(3)
Problems
198(3)
Continuous Time Models
201(28)
Introduction
201(1)
Stochastic Integrals
202(3)
Stochastic Differential Equations
205(2)
Linear Models
207(2)
Second Order Results
209(3)
Continuous White Noise
212(2)
Continuous Time Kalman-Bucy Filters
214(15)
An Intuitive Derivation
214(3)
Verifying Optimality
217(6)
Examples
223(3)
Problems
226(3)
The Separation Theorem
229(16)
Stochastic Dynamic Programming
229(2)
Dynamic Programming Algorithm
231(1)
Discrete Time Stochastic Regulator
232(7)
Full State Feedback
232(2)
Partial State Observations
234(3)
Separation Theorem
237(2)
Continuous Time
239(1)
The Time Invariant Case
240(1)
Active Suspension
240(5)
Problems
243(2)
Luenberger Observers
245(10)
Full State Observers
247(2)
Reduced Order Observers
249(6)
Problems
253(2)
Nonlinear and Finite State Problems
255(16)
Introduction
255(1)
Finite State Machines
256(4)
Graphical Representations
257(1)
Transition Graphs
257(1)
Block Diagrams
258(1)
Trellis Diagrams
258(2)
Finite Markov Processes
260(1)
Hidden Markov Models
261(10)
BCJR Algorithm
262(4)
BCJR and Kalman Filters
266(1)
Hidden Markov Model Smoothing
266(1)
Computational Requirements
267(1)
Problems
268(3)
Wiener-Hopf Methods
271(26)
Wiener Filters
271(2)
Spectral Factorization
273(3)
The Scalar Case - Spectral Factorization
276(5)
Discrete Time Factorization
281(2)
Factorization in The Vector Case
283(3)
Continuous Time Case
283(1)
Discrete Time Version
284(1)
Variant Details
285(1)
Finite Dimensional Symmetric Problems
286(2)
Spectral Factors and Optimal Gains
288(3)
Linear Regulators and The Projection Theorem
291(6)
Problems
295(2)
Distributed System Regulators
297(24)
Open Loop Unstable Distributed Regulators
297(5)
The ``Wiener-Hopf'' Condition
302(5)
Optimal Feedback Gains
307(7)
Matched Filter Evasion
314(7)
Problems
318(3)
Filters Without Riccati Equations
321(12)
Introduction
321(1)
Basic Problem Formulation
322(2)
Spectral Factors
324(3)
Closed Loop Stability
327(3)
Realizing The Optimal Filter
330(3)
Problems
331(2)
Newton's Method for Riccati Equations
333(10)
Newton's Method
333(1)
Continuous Time Riccati Equations
334(1)
Discrete Time Riccati Equations
335(2)
Convergence of Newton's Method
337(6)
Continuous Time Convergence
337(3)
Discrete Time Convergence
340(3)
Numerical Spectral Factorization
343(14)
Introduction
343(1)
An Intuitive Algorithm Derivation
344(2)
A Convergence Proof for the Continuous Time Algorithm
346(2)
Implementation
348(4)
The Discrete Case
352(2)
Numerical Comments
354(3)
A Hilbert and Banach Spaces and Operators 357(42)
Banach and Hilbert Spaces
357(1)
Quotient Spaces
358(1)
Dual Spaces
359(2)
Bounded Linear Operators
361(1)
Induced Norms
362(2)
The Banach Space L(X, Y)
364(1)
Adjoint Mappings
364(1)
Orthogonal Complements
365(1)
Projection Theorem
366(3)
Abstract Linear Equations
369(2)
Linear Equations and Adjoints
371(2)
Minimum Miss Distance Problems
373(1)
Minimum Norm Problems
373(2)
Fredholm Operators
375(4)
Banach Algebras
379(20)
Inverses and Spectra
382(3)
Ideals, Transforms, and Spectra
385(10)
Functional Calculus
395(4)
B Measure Theoretic Probability 399(12)
Measure Theory
399(2)
Random variables
401(1)
Integrals and Expectation
402(1)
Derivatives and Densities
403(2)
Conditional Probabilities and Expectations
405(6)
Conditional Probability
405(1)
Conditional Expectations
406(5)
References 411(6)
Index 417

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