
Singular Trajectories and Their Role in Control Theory
By: Bernard Bonnard, Monique Chyba
Paperback | 12 May 2003
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380 Pages
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Industry Reviews
From the reviews:
"This impressive book discusses the general theory of singular trajectories, and presents in detail a large number of important results ... . The book is, however much broader and comprehensive than the title may suggest, and the authors have gone out of their way to make it accessible ... . would be useful for a two-semester graduate course ... . those who appreciate really deep mathematics, written with passion ... will find this book rewarding and will read it ... with enormous pleasure." (Hector J. Sussmann, IEEE Transactions on Automatic Control, Vol. 50 (2), February, 2005)
"This book presents a detailed and comprehensive account of singular trajectories and their ramifications in control theory and related areas of mathematics. ... it may be suitable as a textbook in an advanced course on nonlinear control theory. ... Along the way the authors review a considerable amount of standard material from nonlinear control theory, thereby making the book accessible and useful to neophytes as well as experts." (Kevin A. Grasse, Mathematical Reviews, 2004 f)
"The book brings together a wealth of results on the topic of singular trajectories and its application, which for a large part was scattered up to now throughout the literature. Hence the book serves as a very valuable source of information for every researcher interested in these and related areas. Generally speaking, the book is well-accessible. ... Summarizing, the book is a very welcome and useful addition to the literature, especially as a research monograph and source of information and inspiration." (A. J. Van der Schaft, Nieuw Archief voor Wiskunde, Vol. 8 (2), 2007)
Linear Systems and the Time Optimal Control Problem | p. 1 |
Linear Systems | p. 1 |
Accessibility Set and Controllability | p. 1 |
Controllability and Feedback Classification in the Autonomous Case | p. 2 |
Controllability | p. 2 |
Linear Classification | p. 3 |
Feedback Classification | p. 5 |
Stabilization | p. 6 |
Controllability in the Nonautonomous Case | p. 7 |
Application | p. 8 |
Time Optimal Control for Linear Systems | p. 9 |
Notations | p. 9 |
Feedback Equivalence to a Linear System | p. 15 |
Problem Statement | p. 15 |
Time Minimal Synthesis | p. 17 |
Notion of Synthesis | p. 17 |
The General Algorithm in the Plane | p. 21 |
Exercises | p. 24 |
Optimal Control for Nonlinear Systems | p. 27 |
A Short Visit into the Classical Calculus of Variations | p. 27 |
Statement of the Problem in the Holonomic Case | p. 27 |
Hamiltonian Equations | p. 29 |
Hamilton-Jacobi-Bellman Equation | p. 30 |
Euler-Lagrange Equations and Characteristics of the HJB Equation | p. 31 |
Second Order Conditions | p. 31 |
The Accessory Problem and the Jacobi Equation | p. 32 |
Conjugate Point and Local Morse Theory | p. 33 |
Scalar Riccati Equation | p. 34 |
Local C0 Minimizer - Extremal Field - Hilbert Invariant Integral | p. 35 |
Optimal Control and the Calculus of Variations | p. 36 |
Problem Statement | p. 36 |
The Augmented System | p. 37 |
Related Problems | p. 38 |
Optimal Control and the Classical Calculus of Variations | p. 38 |
Singular Trajectories and the Weak Maximum Principle | p. 39 |
First and Second Variations of <$>E^{x_0,T}<$> | p. 39 |
Geometric Interpretation of the Adjoint Vector | p. 42 |
The Weak Maximum Principle | p. 42 |
Abnormality | p. 43 |
The Weak Maximum Principle and Euler-Lagrange Equation | p. 43 |
Comparison with the Calculus of Variations | p. 44 |
LQ-Control and the Weak Maximum Principle | p. 44 |
Pontryagin's Maximum Principle (PMP) | p. 45 |
Filippov Existence Theorem | p. 52 |
Comments about the Existence Theorem | p. 52 |
Dynamic Programming and the Maximum Principle | p. 53 |
Exercises | p. 56 |
Geometric Optimal Control | p. 65 |
Introduction to Symplectic Geometry | p. 65 |
Geometric Classification of Extremals in one Dimensional Problems of Calculus of Variations | p. 69 |
Problem Statement and Preliminaries | p. 69 |
Singularity Analysis | p. 71 |
Generic Classification near ¿1 | p. 72 |
Classification and Existence of Optimal Solutions | p. 75 |
Time Minimum Control Problem | p. 76 |
Determination of the Singular Extremals | p. 77 |
Hamiltonian Formalism and Singular Extremals | p. 78 |
Geometric Classification of Extremals near ¿i | p. 79 |
Normal Switching Points | p. 79 |
The Fold Case | p. 80 |
Comparaison Between the Calculus of Variations and the Time Minimum Problem for Affine Systems. The Role of Singular Extremals | p. 82 |
The Fuller Phenomenon | p. 82 |
Fuller Example | p. 82 |
Geometry of the Time Optimal Control in the Plane | p. 84 |
Preliminaries | p. 84 |
Generic points | p. 85 |
Singular arc | p. 86 |
Elliptic Case - The Concept of Conjugate Point | p. 88 |
Exercises | p. 94 |
Singular Trajectories and Feedback Classification | p. 97 |
Classification of Affine Systems | p. 99 |
Computations of Singular Controls | p. 99 |
Singular Trajectories and Feedback Classification | p. 102 |
Time Optimality and Feedback Classification | p. 105 |
Singular Trajectories and the Problem of Classification of Distributions | p. 108 |
Preliminaries | p. 108 |
Local Classification in Dimension 3, with rank D = 2 | p. 109 |
Feedback Classification and Analytic Geometry | p. 111 |
Preliminaries | p. 111 |
Critical Hamiltonians and Symbols | p. 112 |
Exercises | p. 113 |
Controllability - Higher Order Maximum Principle - Legendre-Clebsch and Goh Necessary Optimality Conditions | p. 117 |
Some Notations and Formulas from Differential Geometry | p. 117 |
Controllability with Piecewise Constant Controls | p. 119 |
Integrating Distributions | p. 120 |
Preliminaries | p. 120 |
Frobenius Theorem | p. 120 |
Nagano-Sussmann Theorem | p. 121 |
C∞-Counter Example | p. 122 |
Nonlinear Controllability and Chow Theorem | p. 122 |
Poisson Stability and Controllability | p. 124 |
Application | p. 125 |
Controllability and Enlargement Technique | p. 125 |
Problem Statement | p. 125 |
Evaluation of the Accessibility Set | p. 127 |
Legendre-Clebsch Condition | p. 129 |
The Multi-Inputs Case: Goh Condition | p. 131 |
The Concept of Rigidity - Strong Legendre Clebsch and Goh Conditions as Necessary Conditions for Rigidity | p. 132 |
Intrinsic Second Variation - Morse Index | p. 133 |
Exercises | p. 134 |
The Concept of Conjugate Points in the Time Minimal Control Problem for Singular Trajectories, C0-Optimality | p. 143 |
Single-Input Case | p. 143 |
Preliminaries | p. 143 |
Feedback Semi-Normal Forms in the Hyperbolic and Elliptic Cases | p. 146 |
LQ-Model | p. 147 |
Approximation of the End-Point Mapping Using the LQ-Model in the Elliptic Case | p. 148 |
Conclusion | p. 153 |
The Exceptional Case | p. 153 |
Conclusion | p. 155 |
Comparison of the Elliptic-Hyperbolic Case and the Exceptional Case | p. 156 |
Applications | p. 157 |
Time Optimal Synthesis for Planar System | p. 157 |
Example in Dimension 3 and Connection with the Hamilton-Jacobi-Bellman Equation | p. 157 |
The Case in <$>{\op R}^3<$>. Intrinsic Computations of Conjugate Points- Connection with the Time Minimal Synthesis Problem. The Concept of Curvature | p. 160 |
Euler-Lagrange Equation | p. 160 |
Geometric Interpretation | p. 161 |
Intrinsic Computation | p. 162 |
The Concept of Curvature | p. 162 |
Conjugate Points and Time Minimal Synthesis | p. 163 |
Connection with the Liu-Sussmann Example | p. 164 |
Preliminaries | p. 164 |
Conclusion | p. 166 |
Statement and Proof of Liu-Sussmann Result | p. 166 |
Conclusion | p. 167 |
Connection with the Sub-Riemannian Geometry | p. 168 |
Time Minimal Control of Chemical Batch Reactors and Singular Trajectories | p. 171 |
Introduction | p. 171 |
Mathematical Model of Chemical Batch Reactors and Description of the Control Problem | p. 172 |
Chemical Kinetics | p. 172 |
Control Device | p. 174 |
The Optimal Control Problem | p. 175 |
Projected Problem | p. 175 |
Singular Extremals - Curvature - Conjugate Points | p. 176 |
Projected System | p. 177 |
Time Minimal Synthesis for Planar Systems in the Neighbor-hood of a Terminal Manifold of Codimension One | p. 180 |
Problem Statement | p. 180 |
Assumption C1 | p. 181 |
The Generic C1 Case | p. 181 |
The Generic C1 Flat Case | p. 181 |
The Case C1 of Codimension One | p. 182 |
Generic Hyperbolic Cases | p. 185 |
Generic Exceptional Case | p. 188 |
Generic Flat Exceptional Case | p. 189 |
Global Time Minimal Synthesis | p. 191 |
Preliminaries | p. 191 |
Singular Arc | p. 191 |
Regular Arcs | p. 192 |
Optimal Synthesis in the Neighborhood of N | p. 193 |
Switching Rules | p. 193 |
Optimal Synthesis | p. 194 |
State Constraints due to the Temperature | p. 195 |
Preliminaries | p. 195 |
Optimal Synthesis | p. 198 |
The Problem in Dimension 3 | p. 199 |
Preliminaries | p. 199 |
Stratification of N by the Optimal Feedback Synthesis | p. 199 |
Orientation Principle | p. 200 |
Switching Rules | p. 201 |
Local Classification near the Target | p. 203 |
Focal Points | p. 206 |
Generic Properties of Singular Trajectories | p. 209 |
Introduction and Notations | p. 209 |
Determination of the Singular Extremals with Minimal Order | p. 210 |
Statement of the First Generic Property | p. 211 |
Geometric Interpretation and the General Concept of Order | p. 211 |
Proof of Theorem 25 | p. 213 |
Partially Algebraic and Semi-Algebraic Fiber Bundles | p. 217 |
Coordinate Systems on P(d, N) | p. 218 |
Evaluation of Codimension of the <$>{\cal F}(N)<$> | p. 218 |
End of the Proof of Theorem 25 | p. 222 |
Genericity of Codimension One Singularity | p. 222 |
Proof of Theorem 26 | p. 222 |
The "Bad" Set for Theorem 26 | p. 223 |
Evaluation of the Codimension of Bc(N,q) | p. 224 |
Singularities of the Singular Flow of Minimal Order | p. 226 |
Preliminaries (see Sect. 4.1.3) | p. 226 |
Local Classification near C | p. 227 |
Local Classification near S\C | p. 228 |
The Quadratic Case | p. 229 |
Exercises | p. 231 |
Singular Trajectories in Sub-Riemannian Geometry | p. 233 |
Introduction | p. 233 |
Generalities About SR-Geometry | p. 234 |
Definition | p. 234 |
Optimal Control Theory Formulation | p. 234 |
Computations of the Extremals and Exponential mapping | p. 235 |
Research Program in SR-Geometry | p. 239 |
Classification | p. 239 |
Singularity Theory of the Exponential Mapping and of the Distance Function | p. 239 |
Privileged Coordinates and Graded Normal Forms | p. 240 |
Regular and Singular Points | p. 240 |
Adapted and Privileged Coordinates | p. 241 |
Nilpotent Approximation | p. 242 |
Graded Approximation | p. 242 |
The Contact Case of Order -1 or the Heisenberg-Brockett Example | p. 242 |
The Contact Case in <$>{\op R}^3<$> | p. 242 |
Symmetry Group in the Heisenberg Case | p. 243 |
Heisenberg SR-Geometry and the Dido Problem | p. 243 |
Geodesies | p. 244 |
Conjugate Points | p. 245 |
Sphere and Wave Front | p. 245 |
Conclusion About the SR-Heisenberg Geometry | p. 246 |
The Generic Contact Case | p. 247 |
Normal Forms in the Contact Case | p. 247 |
Generic Conjugate Locus | p. 248 |
The Martinet Case | p. 249 |
Preliminaries | p. 249 |
Normal Form | p. 250 |
Orthonormal Frame | p. 253 |
Graded Normal Form | p. 253 |
Geodesics | p. 254 |
Riemannian Metric on the Plane (x, y) | p. 255 |
Asymptotic Foliation Associated to the Normal Form at Order 0 | p. 256 |
Properties of the Asymptotic Foliations | p. 257 |
Integrable Case of Order 0 and Elliptic Integrals | p. 258 |
The Martinet Flat Case | p. 262 |
Estimates of the Sphere and of the Wave Front near the Abnormal Direction in the Flat Case and exp -ln Category | p. 266 |
Intersection of S(0, r) with the Cut Locus | p. 266 |
Conclusion Deduced from the Martinet SR-Flat Geometry Concerning the role of Abnormal Geodesies in SR-Geometry | p. 268 |
Behaviors of the Normal Geodesies near the Abnormal Direction - Geodesic C0-Rigidity | p. 268 |
Nonproperness of the First Return Mapping R1 and Geometric Consequence | p. 269 |
Cut Locus in Martinet SR-Geometry | p. 271 |
Exercises | p. 273 |
Micro-Local Resolution of the Singularity near a Singular Trajectory - Lagrangian Manifolds and Symplectic Stratifications | p. 281 |
Introduction | p. 281 |
Lagrangian Manifolds | p. 281 |
Application to Classical Calculus of Variations | p. 282 |
Singularity Theory of the Generating Function - Generating Family | p. 283 |
Application to Optimal Control Theory and to SR-Geometry | p. 285 |
The SR-Normal Case | p. 285 |
Jacobi Fields | p. 287 |
Reduction Algorithm in the SR-Case | p. 288 |
The Singular Case | p. 289 |
A Geometric Remark | p. 289 |
Heisenberg Case | p. 289 |
Martinet Flat Case | p. 289 |
Resolution of the Singularity in the Hyperbolic Case | p. 292 |
Normal Form | p. 292 |
Intrinsic Second-Order Derivative | p. 293 |
Goh Transformation | p. 294 |
Lagrangian Manifolds in the Hyperbolic Case | p. 294 |
Examples | p. 296 |
Resolution of the Singularity in the Exceptional Case | p. 302 |
Normal Form - Intrinsic Derivative | p. 302 |
The Operators | p. 303 |
Isotropic Manifolds in the Exceptional Case | p. 303 |
Micro-Local Analysis of SR-Martinet Ball of Small Radius -Lagrangian Stratification of the Martinet Sector | p. 306 |
Preliminaries | p. 306 |
The Smooth Abnormal Sector | p. 307 |
The Smoothness of the Sphere in the Abnormal Direction | p. 307 |
The Martinet Sector | p. 309 |
Symplectic Stratifications | p. 312 |
Transcendence of the Sector | p. 312 |
The Micro-Local Analysis of the Whole Martinet Sphere | p. 313 |
Exercises | p. 314 |
Numerical Computations | p. 321 |
Introduction | p. 321 |
Numerical Algorithm | p. 321 |
Applications | p. 324 |
Contact Case in Dimension 3 | p. 324 |
The Martinet Flat Case | p. 324 |
The Tangential Case | p. 328 |
The Elliptic Case | p. 329 |
The Hyperbolic Case | p. 330 |
Conclusion and Perspectives | p. 335 |
The Category of the Distance Function in SR-Geometry | p. 335 |
SR-Distances and Control of the Oscillations of Solutions of Ordinary Differential Equations | p. 335 |
Optimal Control Problems with Bounded State Variables | p. 338 |
Maximum Principle with State Constraints | p. 338 |
Singular Trajectories and Regularity of Stabilizing Feedback | p. 339 |
Computations of Singular Trajectories | p. 340 |
Computations of Conjugate Points | p. 340 |
Exercises | p. 341 |
References | p. 343 |
Index | p. 349 |
Table of Contents provided by Publisher. All Rights Reserved. |
ISBN: 9783540008385
ISBN-10: 3540008381
Series: Mathematiques et Applications
Published: 12th May 2003
Format: Paperback
Language: English
Number of Pages: 380
Audience: Professional and Scholarly
Publisher: Springer Nature B.V.
Country of Publication: DE
Dimensions (cm): 23.39 x 15.6 x 1.98
Weight (kg): 0.53
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