Cover image for New trends in optimal filtering and control for polynomial and time-delay systems
Title:
New trends in optimal filtering and control for polynomial and time-delay systems
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Series:
Lecture notes in control and information sciences ; 380
Publication Information:
Berlin : Springer, 2008
Physical Description:
xxiv, 206 p. : ill. ; 24 cm.
ISBN:
9783540708025

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30000010194270 QA402.3 B37 2008 Open Access Book Book
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Summary

Summary

0. 1 Introduction Although the general optimal solution of the ?ltering problem for nonlinear state and observation equations confused with white Gaussian noises is given by the Kushner equation for the conditional density of an unobserved state with respect to obser- tions (see [48] or [41], Theorem 6. 5, formula (6. 79) or [70], Subsection 5. 10. 5, formula (5. 10. 23)), there are a very few known examples of nonlinear systems where the Ku- ner equation can be reduced to a ?nite-dimensional closed system of ?ltering eq- tions for a certain number of lower conditional moments. The most famous result, the Kalman-Bucy ?lter [42], is related to the case of linear state and observation equations, where only two moments, the estimate itself and its variance, form a closed system of ?ltering equations. However, the optimal nonlinear ?nite-dimensional ?lter can be - tained in some other cases, if, for example, the state vector can take only a ?nite number of admissible states [91] or if the observation equation is linear and the drift term in the 2 2 state equation satis?es the Riccati equation df /dx + f = x (see [15]). The complete classi?cation of the "general situation" cases (this means that there are no special - sumptions on the structure of state and observation equations and the initial conditions), where the optimal nonlinear ?nite-dimensional ?lter exists, is given in [95].


Table of Contents

1 Optimal Filtering for Polynomial Systemsp. 1
1.1 Filtering Problem for Polynomial State over Linear Observationsp. 1
1.1.1 Problem Statementp. 1
1.1.2 Optimal Filter for Polynomial State over Linear Observationsp. 2
1.1.3 Optimal Third-Order State Filter for Automotive Systemp. 8
1.1.4 State Estimation of Bilinear Terpolymerization Processp. 10
1.2 Filtering Problem for Polynomial State with Partially Measured Linear Partp. 17
1.2.1 Problem Statementp. 17
1.2.2 Optimal Filter for Polynomial State with Partially Measured Linear Part over Linear Observationsp. 18
1.2.3 Examplep. 21
1.3 Filtering Problem for Polynomial State with Multiplicative Noisep. 24
1.3.1 Problem Statementp. 24
1.3.2 Optimal Filter for Polynomial State with Multiplicative Noise over Linear Observationsp. 25
1.3.3 Examplep. 29
1.4 Filtering Problem for Polynomial State with Partially Measured Linear Part and Multiplicative Noisep. 33
1.4.1 Problem Statementp. 33
1.4.2 Optimal Filter for Polynomial State with Partially Measured Linear Part and Polynomial Multiplicative Noise over Linear Observationsp. 35
1.4.3 Cubic Sensor Optimal Filtering Problemp. 38
1.5 Filtering Problem for Linear State over Polynomial Observationsp. 40
1.5.1 Problem Statementp. 40
1.5.2 Optimal Filter for Linear State over Polynomial Observationsp. 41
1.5.3 Example: Third-Order Sensor Filtering Problemp. 43
2 Further Results: Optimal Identification and Control Problemsp. 47
2.1 Optimal Joint State and Parameter Identification Problem for Linear Systemsp. 47
2.1.1 Problem Statementp. 47
2.1.2 Optimal State Filter and Parameter Identifier for Linear Systemsp. 48
2.1.3 Examplep. 50
2.2 Dual Optimal Control Problems for Polynomial Systemsp. 53
2.2.1 Optimal Control Problem for Bilinear State with Linear Inputp. 53
2.2.2 Optimal Regulator for Terpolymerization Reactorp. 56
2.2.3 Optimal Control for Third-Order Polynomial State with Linear Inputp. 61
2.2.4 Optimal Third-Order Polynomial Regulator for Automotive Systemp. 62
2.3 Optimal Controller Problem for Third-Order Polynomial Systemsp. 65
2.3.1 Problem Statementp. 65
2.3.2 Separation Principle for Polynomial Systemsp. 66
2.3.3 Optimal Controller Problem Solutionp. 68
2.3.4 Optimal Third-Order Polynomial Controller for Automotive Systemp. 69
3 Optimal Filtering Problems for Time-Delay Systemsp. 75
3.1 Filtering Problem over Observations with Multiple Delaysp. 75
3.1.1 Problem Statementp. 75
3.1.2 Optimal Filter over Observations with Multiple Delaysp. 76
3.1.3 Examplep. 80
3.2 Filtering Problem for Linear Systems with State Delayp. 84
3.2.1 Problem Statementp. 84
3.2.2 Optimal Filter for Linear Systems with State Delayp. 85
3.2.3 Examplep. 89
3.3 Filtering Problem for Linear Systems with State and Observation Delaysp. 94
3.3.1 Problem Statementp. 94
3.3.2 Optimal Filter for Linear Systems with State and Observation Delaysp. 95
3.3.3 Optimal Filter for Linear Systems with Commensurable State and Observation Delaysp. 98
3.3.4 Examplep. 99
3.3.5 Discussionp. 103
3.4 Filtering Problem for Linear Systems with State and Multiple Observation Delaysp. 103
3.4.1 Problem Statementp. 103
3.4.2 Optimal Filter for Linear Systems with State and Multiple Observation Delaysp. 105
3.4.3 Optimal Filter for Linear Systems with Commensurable State and Observation Delaysp. 108
3.4.4 Examplep. 110
3.5 Filtering Problem for Linear Systems with Multiple State and Observation Delaysp. 113
3.5.1 Problem Statementp. 113
3.5.2 Optimal Filter for Linear Systems with Multiple State and Observation Delaysp. 114
3.6 Alternative Optimal Filter for Linear State Delay Systemsp. 118
3.6.1 Examplep. 120
3.7 Filtering Problem for Nonlinear State over Delayed Observationsp. 122
3.7.1 Problem Statementp. 122
3.7.2 Optimal Filter for Nonlinear State over Delayed Observationsp. 123
3.7.3 Examplep. 127
4 Optimal Control Problems for Time-Delay Systemsp. 131
4.1 Optimal Control Problem for Linear Systems with Multiple Input Delaysp. 131
4.1.1 Problem Statementp. 131
4.1.2 Optimal Control Problem Solutionp. 132
4.1.3 Examplep. 132
4.1.4 Proof of Optimal Control Problem Solutionp. 134
4.1.5 Duality between Filtering and Control Problems for Time-Delay Systemsp. 138
4.2 Optimal Control Problem for Linear Systems with Equal State and Input Delaysp. 141
4.2.1 Problem Statementp. 141
4.2.2 Optimal Control Problem Solutionp. 141
4.2.3 Examplep. 142
4.2.4 Proof of Optimal Control Problem Solutionp. 146
4.3 Optimal Control Problem for Linear Systems with Multiple State Delaysp. 148
4.3.1 Problem Statementp. 148
4.3.2 Optimal Control Problem Solutionp. 148
4.3.3 Examplep. 150
4.3.4 Proof of Optimal Control Problem Solutionp. 153
4.4 Optimal Control Problem for Linear Systems with Multiple State and Input Delaysp. 156
4.4.1 Problem Statementp. 156
4.4.2 Optimal Control Problem Solutionp. 157
4.4.3 Examplep. 159
4.4.4 Proof of Optimal Control Problem Solutionp. 163
4.5 Optimal Controller Problem for Linear Systems with Input and Observation Delaysp. 166
4.5.1 Problem Statementp. 166
4.5.2 Separation Principle for Time-Delay Systemsp. 167
4.5.3 Optimal Control Problem Solutionp. 168
4.5.4 Examplep. 168
5 Sliding Mode Applications to Optimal Filtering and Controlp. 175
5.1 Optimal Robust Sliding Mode Controller for Linear Systems with Input and Observation Delaysp. 175
5.1.1 Problem Statementp. 175
5.1.2 Design Principles for State Disturbance Compensatorp. 176
5.1.3 Design Principles for Observation Disturbance Compensatorp. 177
5.1.4 Robust Sliding Mode Controller Design for Linear System with Input and Observation Delaysp. 179
5.1.5 Examplep. 181
5.2 Optimal and Robust Control for Linear State Delay Systemsp. 185
5.2.1 Optimal Control Problemp. 185
5.2.2 Optimal Control Problem Solutionp. 185
5.2.3 Robust Control Problemp. 186
5.2.4 Design Principlesp. 187
5.2.5 Robust Sliding Mode Control Design for Linear State Delay Systemsp. 189
5.2.6 Examplep. 189
5.2.7 Proof of Optimal Control Problem Solutionp. 192
Referencesp. 199
Indexp. 205