Structural Health Monitoring (eBook)

An Advanced Signal Processing Perspective
eBook Download: PDF
2017 | 1st ed. 2017
XI, 375 Seiten
Springer International Publishing (Verlag)
978-3-319-56126-4 (ISBN)

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This book highlights the latest advances and trends in advanced signal processing (such as wavelet theory, time-frequency analysis, empirical mode decomposition, compressive sensing and sparse representation, and stochastic resonance) for structural health monitoring (SHM). Its primary focus is on the utilization of advanced signal processing techniques to help monitor the health status of critical structures and machines encountered in our daily lives: wind turbines, gas turbines, machine tools, etc. As such, it offers a key reference guide for researchers, graduate students, and industry professionals who work in the field of SHM.

Preface 6
Contents 8
About the Editors 10
1 Advanced Signal Processing for Structural Health Monitoring 13
Abstract 13
1 Introduction 13
2 Structural Health Monitoring 16
2.1 Operational Evaluation 16
2.2 Data Acquisition 17
2.3 Feature Extraction 18
2.4 Diagnosis and Prognosis 19
3 Signal Processing in SHM 20
References 21
2 Signal Post-processing for Accurate Evaluation of the Natural Frequencies 24
Abstract 24
1 Introduction 24
2 Motivation 25
3 Standard Frequency Evaluation 26
4 Simple Methods to Improve the Frequency Readability 31
5 Description and Implementation of the Iterative Algorithm 40
6 Testing the Algorithm Efficiency 44
7 Conclusions 47
Acknowledgements 47
References 47
3 Holobalancing Method and Its Improvement by Reselection of Balancing Object 49
Abstract 49
1 Introduction 49
2 Construction of Holospectrum 50
2.1 Basic Condition Required 50
2.2 Three-Dimensional Holospectrum (3dH) 52
3 Introduction of Holobalancing Method 55
3.1 Initial Phase Point (IPP) 55
3.2 Precession Angle Compensation 57
3.3 Differential Holospectrum and Transfer Matrix 58
3.4 The Balancing Procedure 59
4 Balancing Object Reselection 61
4.1 Characteristic and Deficiency of the IPV 61
4.2 Precession Decomposition 63
4.3 Balancing Object Selection: Characteristic Analysis of IPV+ and IPV? [7] 64
5 Experimental Verification and Case Study 68
5.1 Experimental Verification 68
5.2 Case Study 70
6 Conclusion and Discussion 72
References 73
4 Wavelet Transform Based on Inner Product for Fault Diagnosis of Rotating Machinery 74
Abstract 74
1 Introduction 74
2 Wavelet Transform Based on Inner Product 77
2.1 Inner Product 77
2.2 CWT, DWT and WPT 78
2.3 Inner Product Validation of WT in RMFD 80
3 Adaptive Multiwavelet for RMFD 86
3.1 Summary of Multiwavelet Theory 86
3.2 Adaptive Multiwavelet Construction 89
3.3 Experimental Study 91
4 Discussion 97
5 Conclusion 98
References 98
5 Wavelet Based Spectral Kurtosis and Kurtogram: A Smart and Sparse Characterization of Impulsive Transient Vibration 101
Abstract 101
1 A Brief Introduction 102
2 Spectral Kurtosis and Fast Kurtogram 103
2.1 Signal Modelling 103
2.2 Spectral Kurtosis 105
2.3 Illustration Example of Spectral Kurtosis 106
3 Wavelet Based Kurtogram and Its Development 108
3.1 STFT Based Kurtogram 109
3.2 Fast Kurtogram 110
3.3 Wavelet Packet Based Kurtogram 110
4 Wavelet Tight Frame Based Kurtogram 111
4.1 Limitation of Original Kurtogram 111
4.2 Quasi-Analytic Wavelet Tight Frame 112
4.3 Spatial-Spectral Ensemble Kurtosis and Its Kurtogram 116
4.4 Numerical Simulations and Engineering Applications 118
5 Adaptive Super-Wavelet Based Kurtogram 125
5.1 Adaptive Super-Wavelet Transform 125
5.2 A Sparse Indictor: Fault Feature Ratio (FFR) 128
5.3 Adaptive ESW Based Kurtogram 129
5.4 Engineering Applications 133
6 Conclusions 136
Acknowledgements 136
References 136
6 Time-Frequency Manifold for Machinery Fault Diagnosis 139
Abstract 139
1 Introduction 139
2 Time-Frequency Manifold Analysis 141
2.1 Principle 141
2.2 Phase Space Reconstruction 143
2.3 Time-Frequency Distribution 143
2.4 TFM Learning 145
2.5 Procedure of Time-Frequency Manifold Analysis 147
3 Time-Frequency Manifold Synthesis 148
3.1 Principle 148
3.2 TFD Re-Generation 149
3.3 Time-Frequency Synthesis 149
3.4 PSR Synthesis 150
3.5 Procedure of TFM Synthesis 151
4 Experiments for Machinery Fault Diagnosis 152
4.1 Gear Fault Diagnosis 152
4.2 Bearing Defect Diagnosis 156
5 Conclusions 160
References 161
7 Matching Demodulation Transform and Its Application in Machine Fault Diagnosis 163
Abstract 163
1 Introduction 163
2 Theoretical Background 166
2.1 Short-Time Fourier Transform 167
2.2 Performance Analysis of the IF Estimator 168
3 Matching Demodulation Transform 169
3.1 Matching Demodulation Transform for Mono-Component Signal 170
3.2 Matching Demodulation Transform for Multicomponent Signal 172
3.3 Practical Iterative Implementation of Matching Demodulation Transform 176
4 Performance Analysis of Matching Demodulation Transform 180
4.1 Quantitative Analysis of IF Estimation Error 180
4.2 Convergence Condition and Discussion 187
5 Simulation Study 189
5.1 Applying the MDT to Simulation Signal 189
5.2 Applying Signal Reconstruction to Simulation Signal 196
6 Experimental Verification 198
7 Applications 202
8 Conclusions 207
Acknowledgements 207
References 207
8 Compressive Sensing: A New Insight to Condition Monitoring of Rotary Machinery 211
Abstract 211
1 Introduction 211
2 Problem Statement 214
3 Compressive Sensing Theory 215
3.1 Shannon’s Sampling Theory 215
3.2 Compressive Sensing 216
3.3 Sparse Representation of a Signal 217
3.4 Sampling Method 218
3.5 Optimization Solving Strategy 219
4 Proposed Strategies and Applications 219
4.1 Experiments 219
4.2 Reconstruction of Incomplete Vibration Signal 220
4.3 Fault Classification of Rotating Machinery [25] 224
4.4 Compressive Sensing of Bearing Fault via Characteristic Harmonic Detection 228
5 Conclusions 231
References 232
9 Sparse Representation of the Transients in Mechanical Signals 234
Abstract 234
1 Introduction 234
2 Sparse Representation Theory 235
2.1 Sparse Representation Model 235
2.2 Construction of the Over-Complete Dictionary 237
2.3 Solution to Sparse Representation Model 238
3 Over-Complete Wavelet Basis Dictionary 240
3.1 General Over-Complete Wavelet Basis Dictionary 240
3.2 Correlation Filtering 242
4 Solution to Representation Coefficients Based on BPDN 242
4.1 Data Fidelity Optimization 242
4.2 Penalty Optimization 244
5 Applications 246
5.1 Application in Gearbox Transient Feature Extraction 246
5.2 Application in Bearing Transient Feature Extraction 251
5.3 Application in Compound Fault Feature Extraction 258
6 Discussions 263
References 264
10 Fault Diagnosis of Rotating Machinery Based on Empirical Mode Decomposition 266
Abstract 266
1 Introduction 266
2 Empirical Mode Decomposition 267
2.1 EMD Algorithm 267
2.2 Problems of EMD 271
2.3 Hilbert-Huang Transform 273
3 Improved EMD Methods 274
3.1 EEMD Method 274
3.2 AEEMD Method 278
3.3 CEEMDAN Method 281
4 Fault Diagnosis of Rotating Machinery Using EMD Based Methods 285
4.1 Fault Diagnosis of Rotors 285
4.2 Fault Diagnosis of Gears 289
4.3 Fault Diagnosis of Rolling Element Bearings 292
5 Conclusions 296
References 297
11 Bivariate Empirical Mode Decomposition and Its Applications in Machine Condition Monitoring 300
Abstract 300
1 Introduction 300
2 Empirical Mode Decomposition 301
3 Bivariate Empirical Mode Decomposition 304
4 Applications of the BEMD in Machine Condition Monitoring 306
4.1 The CM of Bearing-Shaft Systems 306
4.2 The CM of Wind Turbines 314
5 Concluding Remarks 325
References 326
12 Time-Frequency Demodulation Analysis Based on LMD and Its Applications 327
Abstract 327
1 Introduction 327
2 Instantaneous Features of a Signal 328
3 A Brief Introduction of LMD 330
4 Some Key Issues of LMD 333
4.1 Boundary Processing 333
4.2 Determination of the Step Size of MA 336
4.3 Instantaneous Time-Frequency Spectrum 337
5 Time-Frequency Demodulation Analysis for the Simulated Signals 338
5.1 AM Signal Demodulation 339
5.2 FM Signal Demodulation 340
5.3 AM-FM Signal Demodulation 342
6 Applications 343
6.1 Rub Fault Detection in a Rotor System 343
6.2 Practical Rub-Impact Fault Diagnosis 344
6.3 Demodulation Analysis of a Gearbox 347
7 Conclusions 350
Acknowledgements 350
References 350
13 On the Use of Stochastic Resonance in Mechanical Fault Signal Detection 352
Abstract 352
1 Introduction 352
2 Bistable Stochastic Resonance Model 354
3 Normalized Scale Transform 355
3.1 Basic Theory of Normalized Scale Transform 355
3.2 Simulation Result of Normalized Scale Transform 357
3.3 Application of Normalized Scale Transform 358
4 SR Circuit Module 363
4.1 Circuit Module 363
4.2 Simulated Experiment of Circuit Module 366
4.3 Application of Circuit Module 366
5 Multi-scale Bistable Array SR 368
5.1 Stochastic Resonance Effect in MSBA 368
5.2 Signal Detection and Numerical Simulation 373
5.3 Application for Machinery Fault Diagnosis 375
6 Conclusions 379
Acknowledgements 379
References 379

Erscheint lt. Verlag 29.4.2017
Reihe/Serie Smart Sensors, Measurement and Instrumentation
Zusatzinfo XI, 375 p. 284 illus., 175 illus. in color.
Verlagsort Cham
Sprache englisch
Themenwelt Technik Bauwesen
Technik Elektrotechnik / Energietechnik
Schlagworte Condition Monitoring • Empirical Mode Decomposition • Fault Diagnostics • gas turbine • Machine Tools • Signal Processing • Sparse Representation • Structural Health Monitoring • time-frequency analysis • wavelet theory • Wind turbine
ISBN-10 3-319-56126-X / 331956126X
ISBN-13 978-3-319-56126-4 / 9783319561264
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