Model-based Fault Diagnosis Techniques

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Format: Paperback
Pub. Date: 2008-04-10
Publisher(s): Springer Verlag
List Price: $116.62

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Summary

A most critical and important issue surrounding the design of automatic control systems with the successively increasing complexity is guaranteeing a high system performance over a wide operating range and meeting the requirements on system reliability and dependability. As one of the key technologies for the problem solutions, advanced fault detection and identification (FDI) technology is receiving considerable attention. The objective of this book is to introduce basic model-based FDI schemes, advanced analysis and design algorithms and the needed mathematical and control theory tools at a level for graduate students and researchers as well as for engineers.

Table of Contents

Notationp. XIX
Introduction, basic concepts and preliminaries
Introductionp. 3
Basic concepts of fault diagnosis techniquep. 4
Historical development and some relevant issuesp. 8
Notes and referencesp. 11
Basic ideas, major issues and tools in the observer-based FDI frameworkp. 13
On the observer-based residual generator frameworkp. 13
Unknown input decoupling and fault isolation issuesp. 14
Robustness issues in the observer-based FDI frameworkp. 15
On the parity space FDI frameworkp. 17
Residual evaluation and threshold computationp. 17
FDI system synthesis and designp. 18
Notes and referencesp. 18
Modelling of technical systemsp. 21
Description of nominal system behaviorp. 22
Coprime factorization techniquep. 23
Representations of disturbed systemsp. 25
Representations of system models with model uncertaintiesp. 25
Modelling of faultsp. 27
Modelling of faults in closed loop feedback control systemsp. 30
Benchmark examplesp. 31
Speed control of a DC motorp. 31
Inverted pendulum control systemp. 34
Three tank systemp. 38
Vehicle lateral dynamic systemp. 42
Electrohydraulic Servo-actuatorp. 46
Notes and referencesp. 49
Structural fault detectability, isolability and identifiabilityp. 51
Structural fault detectabilityp. 51
Excitations and sufficiently excited systemsp. 56
Structural fault isolabilityp. 57
Concept of structural fault isolabilityp. 57
Fault isolability conditionsp. 58
Structural fault identifiabilityp. 65
Notes and referencesp. 67
Residual generation
Basic residual generation methodsp. 71
Analytical redundancyp. 72
Residuals and parameterization of residual generatorsp. 75
Problems related to residual generator design and implementationp. 78
Fault detection filterp. 80
Diagnostic observer schemep. 81
Construction of diagnostic observer-based residual generatorsp. 81
Characterization of solutionsp. 83
A numerical approachp. 91
An algebraic approachp. 95
Parity space approachp. 97
Construction of parity relation based residual generatorsp. 98
Characterization of parity spacep. 100
Examplesp. 102
Interconnections, comparison and some remarksp. 103
Parity space approach and diagnostic observerp. 103
Diagnostic observer and residual generator of general formp. 107
Applications of the interconnections and some remarksp. 110
Examplesp. 112
Notes and referencesp. 114
Perfect unknown input decouplingp. 115
Problem formulationp. 115
Existence conditions of PUIDPp. 117
A general existence conditionp. 117
A check condition via Rosenbrock system matrixp. 118
Algebraic check conditionsp. 120
A frequency domain approachp. 125
UIFDF designp. 128
The eigenstructure assignment approachp. 128
Geometric approachp. 132
UIDO designp. 139
An algebraic approachp. 140
Unknown input observer approachp. 142
A matrix pencil approach to the UIDO designp. 147
A numerical approach to the UIDO designp. 150
Unknown input parity space approachp. 153
An alternative scheme - null matrix approachp. 153
Minimum order residual generatorp. 154
Minimum order residual generator design by geometric approachp. 154
An alternative solutionp. 156
Notes and referencesp. 159
Residual generation with enhanced robustness against unknown inputsp. 161
Mathematical and control theoretical preliminariesp. 162
Signal normsp. 163
System normsp. 165
Computation of H[subscript 2] and H[subscript infinity] normsp. 168
Singular value decompositionp. 169
Co-inner-outer factorizationp. 170
Model matching problemp. 173
Essentials of the LMI techniquep. 173
Kalman filter based residual generationp. 174
Approximation of UI-distribution matrixp. 178
Approximation of matrices E[subscript d], F[subscript d]p. 178
Approximation of matrices H[subscript d,s]p. 180
Some remarksp. 182
Robustness, fault sensitivity and performance indicesp. 184
Robustness and sensitivityp. 184
Performance indices: robustness vs. sensitivityp. 185
Relations between the performance indicesp. 186
Optimal selection of parity matrices and vectorsp. 187
S[subscript f,+]/R[subscript d] as performance indexp. 188
S[subscript f,-]/R[subscript d] as performance indexp. 191
J[subscript S-R] as performance indexp. 193
Optimization performance and system orderp. 195
Summary and some remarksp. 197
H[subscript infinity] optimal fault identification schemep. 201
H[subscript 2]/H[subscript 2] design of residual generatorsp. 202
Relationship between H[subscript 2]/H[subscript 2] design and optimal selection of parity vectorsp. 206
LMI aided design of FDFp. 211
H[subscript 2] to H[subscript 2] trade-off design of FDFp. 213
On H[subscript -] indexp. 218
H[subscript 2] to H[subscript -] trade-off design of FDFp. 225
H[subscript infinity] to H[subscript -] trade-off design of FDFp. 227
An alternative H[subscript infinity] to H[subscript -] trade-off design of FDFp. 229
A brief summary and discussionp. 232
The unified solutionp. 232
H[subscript i]/H[subscript infinity] index and problem formulationp. 233
H[subscript i]/H[subscript infinity] optimal design of FDF: the standard formp. 234
Discrete time version of the unified solutionp. 237
The general form of the unified solutionp. 238
Extended CIOFp. 238
Generalization of the unified solutionp. 240
Notes and referencesp. 244
Residual generation with enhanced robustness against model uncertaintiesp. 247
Preliminariesp. 248
LMI aided computation for system boundsp. 248
Stability of stochastically uncertain systemsp. 249
Transforming model uncertainties into unknown inputsp. 250
Reference model strategiesp. 252
Basic ideap. 252
A reference model based solution for systems with norm bounded uncertaintiesp. 252
Residual generation for systems with polytopic uncertaintiesp. 259
The reference model scheme based schemep. 259
H[subscript -] to H[subscript infinity] design formulationp. 263
Residual generation for stochastically uncertain systemsp. 265
System dynamics and statistical propertiesp. 266
Basic idea and problem formulationp. 266
An LMI solutionp. 267
An alternative approachp. 274
Notes and referencesp. 276
Residual evaluation and threshold computation
Norm based residual evaluation and threshold computationp. 281
Preliminariesp. 282
Basic conceptsp. 284
Some standard evaluation functionsp. 285
Basic ideas of threshold setting and problem formulationp. 287
Dynamics of the residual generatorp. 288
Definitions of thresholds and problem formulationp. 289
Computation of J[subscript th,RMS,2]p. 291
Computation of J[subscript th,RMS,2] for the systems with the norm bounded uncertaintyp. 292
Computation of J[subscript th,RMS,2] for the systems with the polytopic uncertaintyp. 295
Computation of J[subscript th,peak,peak]p. 297
Computation of J[subscript th,peak,peak] for the systems with the norm bounded uncertaintyp. 297
Computation of J[subscript th,peak,peak] for the systems with the polytopic uncertaintyp. 301
Computation of J[subscript th,peak,2]p. 302
Computation of J[subscript th,peak,2] for the systems with the norm bounded uncertaintyp. 302
Computation of J[subscript th,peak,2] for the systems with the polytopic uncertaintyp. 305
Threshold generatorp. 307
Notes and referencesp. 310
Statistical methods based residual evaluation and threshold settingp. 311
Introductionp. 311
Elementary statistical methodsp. 312
Basic hypothesis testp. 312
Likelihood ratio and generalized likelihood ratiop. 314
Vector-valued GLRp. 316
Detection of change in variancep. 317
Aspects of on-line realizationp. 318
Criteria for threshold computationp. 320
The Neyman-Pearson criterionp. 320
Maximum a posteriori probability (MAP) criterionp. 321
Bayes' criterionp. 322
Some remarksp. 323
Application of GLR testing methodsp. 324
Kalman filter based fault detectionp. 324
Parity space based fault detectionp. 330
Notes and referencesp. 333
Integration of norm based and statistical methodsp. 335
Residual evaluation in stochastic systems with deterministic disturbancesp. 335
Residual generationp. 336
Problem formulationp. 337
GLR solutionsp. 338
Discussion and examplep. 341
Residual evaluation scheme for stochastically uncertain systemsp. 343
Problem formulationp. 343
Solution and design algorithmsp. 345
Probabilistic robustness technique aided threshold computationp. 356
Problem formulationp. 356
Outline of the basic ideap. 358
LMIs needed for the solutionsp. 359
Problem solutions in the probabilistic frameworkp. 360
An application examplep. 362
Concluding remarksp. 364
Notes and referencesp. 364
Fault detection, isolation and identification schemes
Integrated design of fault detection systemsp. 369
FAR and FDRp. 370
Maximization of fault detectability by a given FARp. 373
Problem formulationp. 374
Essential form of the solutionp. 374
A general solutionp. 376
Interconnections and comparisonp. 378
Examplesp. 382
Minimizing false alarm number by a given FDRp. 386
Problem formulationp. 387
Essential form of the solutionp. 388
The state space formp. 390
The extended formp. 391
Interpretation of the solutions and discussionp. 393
An examplep. 396
On the application to stochastic systemsp. 398
Application to maximizing FDR by a given FARp. 398
Application to minimizing FAR by a given FDRp. 399
Notes and referencesp. 399
Fault isolation schemesp. 403
Essentialsp. 404
Existence conditions for a perfect fault isolationp. 404
PFIs and unknown input decouplingp. 406
PFIs with unknown input decoupling (PFIUID)p. 409
A frequency domain approachp. 410
Fault isolation filter designp. 412
A design approach based on the duality to decoupling controlp. 412
The geometric approachp. 415
A generalized design approachp. 417
An algebraic approach to fault isolationp. 426
Fault isolation using a bank of residual generatorsp. 431
The dedicated observer scheme (DOS)p. 432
The generalized observer scheme (GOS)p. 435
Notes and referencesp. 438
On fault identificationp. 441
Fault identification filter and perfect fault identificationp. 442
FIF design with additional informationp. 445
On the optimal fault identification problemp. 448
Study on the role of the weighting matrixp. 450
Approaches to the design of FIFp. 456
A general fault identification schemep. 456
An alternative fault detection schemep. 457
Identification of the size of a faultp. 458
Notes and referencesp. 460
Referencesp. 463
Indexp. 471
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