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9783540199687

Issues of Fault Diagnosis for Dynamic Systems

by ; ;
  • ISBN13:

    9783540199687

  • ISBN10:

    3540199683

  • Format: Hardcover
  • Copyright: 2000-04-01
  • Publisher: Springer Verlag
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Summary

There is an increasing demand for dynamic systems to become safer, more reliable and more economical in operation. This requirement extends beyond the normally accepted safety-critical systems e.g., nuclear reactors, aircraft and many chemical processes, to systems such as autonomous vehicles and some process control systems where the system availability is vital. The field of fault diagnosis for dynamic systems (including fault detection and isolation) has become an important topic of research. Many applications of qualitative and quantitative modelling, statistical processing and neural networks are now being planned and developed in complex engineering systems. Issues of Fault Diagnosis for Dynamic Systems has been prepared by experts in fault detection and isolation (FDI) and fault diagnosis with wide ranging experience. Subjects featured include: - Real plant application studies; - Non-linear observer methods; - Robust approaches to FDI; - The use of parity equations; - Statistical process monitoring; - Qualitative modelling for diagnosis; - Parameter estimation approaches to FDI; - Fault diagnosis for descriptor systems; - FDI in inertial navigation; - Stuctured approaches to FDI; - Change detection methods; - Bio-medical studies. Researchers and industrial experts will appreciate the combination of practical issues and mathematical theory with many examples. Control engineers will profit from the application studies.

Table of Contents

List of Contributors
xxiii
Introduction
1(14)
R. J. Patton
P. M. Frank
R. N. Clark
Background and Definitions
1(4)
Fault Diagnosis Methodology
5(1)
Summary of Structure and Content of the Book
6(9)
Integration of Fault Detection and Diagnosis Methods
15(36)
Rolf Isermann
Introduction
15(1)
Fault Detection and Fault Diagnosis
16(2)
Model-Based Fault Detection Methods
18(10)
Fault detection with parameter estimation
19(2)
Fault detection with state-estimation
21(4)
Fault detection with parity equations
25(1)
Fault detection with signal models
26(1)
Change detection and symptom generation
27(1)
Applicability of Model-Based Fault Detection Methods
28(4)
Assumptions of model-based fault detection
28(2)
Fault modelling
30(1)
Suitability of quantitative model-based fault detection methods
31(1)
Integration of Different Fault Detection Methods
32(1)
Fault Diagnosis Methods
33(18)
Symptom representation
35(1)
Heuristic knowledge representation
35(3)
Diagnostic reasoning
38(3)
Appendix A. Parameter estimation and state estimation for the detection of tool wear and breakage for machine tools
41(4)
Appendix B: Fault diagnosis of a machine tool feed drive with fuzzy reasoning
45(6)
Observability and Redundancy Decomposition Application to Diagnosis
51(36)
Jose Ragot
Didier Maquin
Frederic Kratz
Introduction
51(2)
Static Redundancy Equations
53(8)
Presentation
54(1)
Genration of redundancy equations by direct elimination
55(1)
Genration of redundancy equations by projection
55(1)
The constraint static case
56(2)
A systematic decomposition
58(2)
Example
60(1)
Dynamic Redundancy Equations
61(14)
Presentation
61(1)
Basis of redundancy generation
62(1)
Direct redundancy (self-redundancy)
62(2)
Redundancy between sensors (inter-redundancy)
64(1)
Direct generation of the redundancy equations
65(3)
Generation of redundancies by reduction of the state equations
68(1)
Generation of redundancies by projection
69(1)
Generation of non-independent redundancy equations
70(2)
Interconnected systems
72(1)
Observability decomposition
73(2)
Analysis of the Residuals
75(12)
Presentation
76(3)
Residual criterion analysis
79(1)
Imbalances or adjustments using vectors analysis
80(1)
Generalised likelihood ratio approach
81(1)
Parity space approach
82(5)
Fault Detection and Isolation for Linear Systems Using Detection Observers
87(28)
Chongzhi Fang
Wei Ge
Deyun Xiao
Problem Formulation
87(1)
System model with fault modes
87(1)
Fault detection using observers
87(1)
Detection observers
88(3)
Definition of detection observers
88(1)
Fault detectability
89(2)
Fault Isolation Logic
91(9)
Fault Isolation problem
91(1)
Fault Isolation logic
91(2)
The maximum fault isolation information
93(4)
Additional fault isolation logic
97(2)
Solution of fault isolation problem
99(1)
Detection Observer System Design
100(7)
Detection signals of a detection observer
100(1)
Conditions of existence for sensitivity vectors
101(2)
Solution for detection observer structure conditions
103(3)
Design algorithm for detection observer with given sensitivity
106(1)
An Example
107(8)
Fault Detection and Isolation for Descriptor Systems
115(30)
Ming Hou
Introduction
115(1)
Problem Formulation
115(3)
The Existence of Analytical Redundancy
118(2)
Fault Detectability
120(5)
Fault Isolability
125(2)
FDI Observer Design
127(3)
Illustrative Example
130(7)
Concluding Remarks
137(2)
Appendix: Proofs of Theorems
139(6)
Robust Observer-Based Fault Diagnosis in Non-Linear Uncertain Systems
145(44)
Ralf Seliger
Paul M. Frank
Introduction
145(2)
Problem Statement
147(2)
Residual Generation by Non-Linear Unknown Input Observers
149(2)
Process Modelling
151(5)
Nominal Process Model
152(1)
Fault and Disturbance Modelling
152(4)
Disturbance Decoupling
156(8)
Fault Sensitive Disturbance Decoupling Transformation
156(1)
Solution Procedures
157(7)
Design of Non-Linear Unknown Input Fault Detection Observers
164(11)
Design by Estimation Error Linearisation
165(5)
Design by Partial Estimation Error Linearisation
170(2)
Design by Linearisation about the Estimated State
172(3)
Robust Residual Evaluation by Threshold Selection
175(4)
A Performance Index
179(4)
Computational Evaluation of the Performance Index
181(2)
Application Example
183(2)
Conclusions
185(4)
Uncertainty Modelling and Robust Fault Diagnosis for Dynamic Systems
189(30)
Ron J. Patton
Jie Chen
Introduction
189(1)
Brief Details of Robust Fault Diagnosis using Eigenstructure Assignment
190(3)
Direct Determination and Optimisation of Disturbance Distribution Matrix
193(4)
Noise and additive non-linearity
193(1)
Model reduction
193(1)
Parameter perturbations
194(1)
Low rank approximation of distribution matrix
195(1)
Bounded uncertainty
196(1)
Estimation of Disturbance and Disturbance Distribution Matrix
197(7)
Estimation of disturbance vector using an augmented observer
198(1)
Estimation of disturbance distribution matrix
199(1)
Estimation of disturbance vector using de-convolution
200(4)
Optimisation of Distribution Matrix for Varying Operating Point Cases
204(1)
Modelling and Fault Detection for Jet Engine System
205(11)
Application of direct computation and optimisation method
207(2)
Application of augmented observer method
209(7)
Conclusion
216(3)
Reliability Models for Sensor Fault Detection with State-Estimator Schemes
219(26)
Dirk van Schrick
Peter C. Muller
Introduction
219(2)
Description of IFD-Estimator Schemes
221(4)
Basic Theory of Markov Processes
225(4)
Modelling of the IFD-Estimator Schemes
229(6)
Comparison of the IFD-Estimator Schemes
235(8)
Conclusions
243(2)
A Structural Framework for the Design of FDI System in Large Scale Industrial Plants
245(40)
M. Staroswiecki
J. P. Cassar
P. Declerck
Introduction
245(2)
The Model Based Approach for FDI
247(6)
Residual generation using analytical models
249(2)
The limitations of analytical models
251(1)
The structural approach
252(1)
Structural Model And Canonical Decomposition
253(16)
The structure of the model
253(3)
Direct redundancy relations (Staroswiecki & Declerck, 1990)
256(1)
Deduced redundancy relations (Staroswiecki & Declerck, 1990)
257(9)
Residual generation
266(1)
Matching under causal constraints
266(2)
Related studies
268(1)
Control of the results
268(1)
Using the Residuals for Fault Detection and Isolation
269(10)
Boolean signature of a fault
270(1)
The FDI procedure
271(6)
Robustness and sensitivity
277(2)
The Implementation of the FDI Procedure
279(4)
Decomposition of the FDI procedure
280(2)
Distribution of the FDI system and smart instruments
282(1)
Conclusions
283(2)
Structured Parity Equations in Fault Detection and Isolation
285(30)
Janos J. Gertler
Introduction
285(2)
System Description
287(6)
Nominal (fault-free) system
287(2)
Additive faults and disturbances
289(1)
Multiplicative faults and modelling errors
290(3)
Parity Equations
293(3)
Parity equations from the input-output model
293(2)
Parity equations from the state-space model
295(1)
Structuring the Residuals for Additive Faults and Disturbances
296(9)
Isolability and disturbance decoupling
297(1)
Designing the equation structure
298(3)
Structured parity equations
301(4)
Structured residuals from the state-equations
305(1)
Structuring the Residuals for Multiplicative Faults and Modelling Errors
305(6)
Structuring strategies
306(1)
Transformation of the residuals
306(4)
Generating residuals for mixed faults
310(1)
Conclusion
311(4)
Input Design for Change Detection
315(24)
Feza Kerestecioglu
Martin B. Zarrop
Introduction
315(2)
SPRT and CUSUM Test
317(5)
SPRT
317(2)
CUSUM test
319(1)
Performance measures for the CUSUM test
320(2)
Input Design Problem
322(1)
Offline Inputs
323(7)
Problem refinement
323(1)
Power constrained inputs
324(6)
Online Inputs
330(5)
Problem refinement
330(2)
A suboptimal solution
332(3)
Simulation Examples
335(3)
Conclusions
338(1)
On-Line Detection and Diagnosis of Sensor and Process Faults in Nuclear Power Plants
339(40)
Johannes Prock
Introduction: Problem Statement
339(2)
A Three Level Concept for Fault Detection
341(24)
1st level: hardware redundancy
342(2)
2nd level: analytical redundancy
344(16)
3rd level: system redundancy
360(5)
Diagnostic Problems
365(6)
Diagnostic instability
367(1)
Alarm messages of the three level's modules
368(1)
The use of an experrt diagnosis system
369(1)
Hybrid AI-systems ideas
370(1)
LYDIA - A System for Early Sensor and Process Fault Detection and Diagnosis
371(5)
A first example
372(3)
Application to the primary and secondary side of a pressurised water reactor
375(1)
Conclusions
376(3)
Application of Sensor Fault Classification Algorithms to a Benson Steam Boiler
379(34)
Kristian Kroschel
Andreas Wernz
Introduction
379(3)
Scheme and Model of the Steam Generator
382(3)
Assumptions about the estimation error signals
384(1)
Basic Instrument Fault Diagnosis Scheme
385(6)
Detection of a sensor fault
385(2)
Estimation and classification of a sensor fault
387(3)
Experimental results
390(1)
Suppression of Modelling Errors
391(6)
De-correlation method
392(4)
Implementation of the de-correlation filters
396(1)
Results
397(1)
Identification of Process Parameters
397(13)
Bank of state-augmented Kalman filters
400(1)
Design of the Kalman filters
401(3)
Computation of the a posteriori probabilities
404(1)
Figures of merit for detectability and separability
404(1)
Tuning of the Kalman filters
405(1)
Results
406(4)
Conclusions
410(3)
Detection of Events in Signals VIA The Model-Based Fault Diagnosis Approach: Application to Bio-Electrical Signals
413(22)
Dominique Sauter
Thierry Cecchin
David Brie
Introduction
413(1)
Theoretical Background
414(11)
Problem formulation
414(2)
Residual generation
416(3)
Residual evaluation
419(2)
Robustness considerations
421(4)
Bio-Electrical Signal Processing
425(8)
Separation of fast and slow phases of eye tracking movement
425(2)
Rejection of artefacts for EEG spectral analysis
427(3)
Extraction of spindles in sleep EEG for spectral analysis
430(3)
Conclusions
433(2)
A Study of Fault-Tolerant Integrated Navigation Systems
435(26)
Hong-Yue Zhang
Han-Guo Zhang
Jie Chen
Ron J. Patton
Bruce K. Walker
Introduction
435(2)
Fault Tolerance for a Redundant Sensor Configuration
437(10)
Redundant sensor systems
437(2)
Direct comparison of the measurements
439(2)
Generalised likelihood test (GLT)
441(6)
Combining Algorithm for Decentralised Estimation
447(5)
Fault Detection and Isolation for Subsystems
452(3)
X2 test
452(2)
Residual test
454(1)
Application and Simulation Results
455(5)
Conclusions
460(1)
A Hierarical Structure for on-Line Process Fault Diagnosis Based on Deep Qualitative Modelling
461(24)
Jie Zhang
Peter D. Roberts
Introduction
461(2)
Qualitative Modelling
463(3)
Qualitative modelling based on confluences
463(1)
Order of magnitude reasoning
464(2)
A Hierarchical Structure for On-Line Process Fault Diagnosis
466(6)
The lower level diagnosis system
466(2)
The upper level diagnosis system
468(4)
Application to a Pilot Scale Mixing Process
472(9)
The mixing process
472(1)
Qualitative modelling of the mixing process
472(3)
Fault detection and diagnosis
475(4)
A case study
479(1)
Performance of the hierarchical fault diagnosis system
480(1)
Conclusions
481(4)
Fault Diagnosis Based on a Predicate Logic Description of Dynamical Systems
485(32)
Jan Lunze
Frank Schiller
Introduction
485(5)
The Rationale for Qualitative Diagnosis
485(3)
Outline of the proposed diagnostic method
488(2)
Qualitative Modelling
490(10)
Qualitative vs quantitative modelling
490(1)
Qualitative description of signals
491(3)
Description of the perturbed steady state by propositional logic formulae
494(2)
Description of the perturbed dynamical behaviour by predicate logic formulae
496(2)
Causality graph and aggregated causality graph
498(2)
The Diagnostic Problem
500(1)
Diagnosis Based on a Propositional Logic Description of the System
500(6)
Solution by a resolution refutation system
501(1)
Solution by deduction
501(2)
Reduction of the search space of the deduction system
503(2)
The structure of the diagnostic algorithm
505(1)
Solution Based on a Predicate Logic Description
506(3)
Example - a Tank System
509(5)
Conclusions
514(3)
Monitoring and Diagnosis of Fermentation Processes
517(30)
Kouamana Bousson
Jean-Philippe Steyer
Boutaib Dahhou
Louise Trave-Massuyes
Introduction
517(2)
Fermentation Processes
519(5)
General features
519(4)
Case study
523(1)
The BIOTECH System
524(9)
Detection of sensor malfunction
525(1)
Signal interpretation
525(2)
Causal qualitative model
527(3)
Generating influence tables
530(3)
CA-EN: A Model-Based Reasoning Module
533(12)
Introduction
535(1)
Modelling formalism
535(5)
Prediction and interpretation algorithms
540(2)
Interpretations and supervisory control
542(1)
Application to the fed-batch fermentation process
543(2)
Conclusions
545(2)
Process Monitoring and Fault Detection Using Multivariate SPC
547(20)
E.B. Martin
A.J. Morris
Introduction
547(2)
Process Monitoring and Process Control
549(1)
Multivariate Statistical Methods
550(3)
Principal Components Analysis (PCA)
550(1)
Projection to Latent Structures
551(2)
Multivariate Statistical Process Control
553(2)
The Squared Prediction Error Plot
553(1)
Confidence Bounds
554(1)
Interpreting the `Out of Control' Signal
555(1)
Polymer Process Monitoring and Fault Detection
555(4)
Batch Processes
559(5)
Multi-way Principal Component Analysis
561(1)
An example of Process Performance Monitoring of a Batch Process
562(2)
Conclusions
564(3)
References 567

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