: Giuseppe Conte, Claude H. Moog, Anna Maria Perdon
: Algebraic Methods for Nonlinear Control Systems
: Springer-Verlag
: 9781846285950
: 2
: CHF 85.40
:
: Elektronik, Elektrotechnik, Nachrichtentechnik
: English
: 178
: Wasserzeichen
: PC/MAC/eReader/Tablet
: PDF

This is a self-contained introduction to algebraic control for nonlinear systems suitable for researchers and graduate students. It is the first book dealing with the linear-algebraic approach to nonlinear control systems in such a detailed and extensive fashion. It provides a complementary approach to the more traditional differential geometry and deals more easily with several important characteristics of nonlinear systems.

Preface to the Second Edition7
Preface to the First Edition8
Contents11
Methodology15
1 Preliminaries16
1.1 Analytic and Meromorphic Functions17
1.2 Control Systems21
1.3 Linear Algebraic Setting23
1.4 Frobenius Theorem27
1.5 Examples29
Problems31
2 Modeling33
2.1 State Elimination33
2.2 Examples37
2.3 Generalized Realization38
2.4 Classical Realization40
2.5 Input-output Equivalence and Realizations41
2.6 A Necessary and Sufficient Condition for the Existence of a Realization43
2.7 Minimal Realizations45
2.8 Affine Realizations46
2.9 The Hopping Robot51
2.10 Some Models53
Problems54
3 Accessibility56
3.1 Introduction56
3.2 Examples56
3.3 Reachability, Controllability, and Accessibility57
3.4 Autonomous Elements58
3.5 Accessible Systems60
3.6 Controllability Canonical Form61
3.7 Controllability Indices62
3.8 Accessibility of the Hopping Robot Model64
Problems64
4 Observability66
4.1 Introduction66
4.2 Examples66
4.3 Observability67
4.4 The Observable Space68
4.5 Observability Canonical Form71
4.6 Observability Indices72
4.7 Synthesis of Observers73
Problems80
5 Systems Structure and Inversion81
5.1 Introductory Examples81
5.2 Inverse Systems82
5.3 Structural Indices83
5.4 Structure Algorithm86
5.5 Invertibility93
5.6 Zero Dynamics94
Problems97
6 System Transformations99
6.1 Generalized State-space Transformation99
6.2 Regular Generalized State Feedback100
6.3 Generalized Output Injection102
6.4 Canonical Form103
6.5 Generalizing the Notion of Output Injection109
Problem112
Applications to Control Problems113
7 Input-output Linearization114
7.1 Input-output Linearization Problem Statement114
7.2 Single-output Case115
7.3 Multioutput Case115
7.4 Trajectory Tracking118
Problems122
8 Noninteracting Control123
8.1 Noninteracting Control Problem Statement123
8.2 Static State Feedback Solution124
8.3 Dynamic State Feedback Solution124
8.4 Noninteracting Control via Quasi-static State Feedback125
Problem126
9 Input-state Linearization127
9.1 Input-state Linearization Problem Statement127
9.2 Static State Feedback Solution128
9.3 Partial Linearization130
Problem134
10 Disturbance Decoupling135
10.1 Solution of the Disturbance Decoupling Problem136
11 Model Matching138
11.1 A Special Form of the Inversion Algorithm138
11.2 Model Matching Problem141
11.3 Left Factorization149
12 Measured Output Feedback Control Problems156
12.1 Input-output Linearization156
12.2 Input-output Decoupling171
Problem172
References173
Index182