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Particle Swarm Optimization and Differential Evolution Algorithms: Technical Analysis, Applications and Hybridization Perspectives | p. 1 |
Introduction | p. 1 |
Classical PSO | p. 2 |
Selection of Parameters for PSO | p. 6 |
The Inertia Weight ¿ | p. 7 |
The Maximum Velocity Vmax | p. 7 |
The Constriction Factor ¿ | p. 8 |
The Swarm Size | p. 8 |
The Acceleration Coefficients C1 and C2 | p. 9 |
The Neighborhood Topologies in PSO | p. 9 |
The Binary PSO | p. 10 |
Hybridization of PSO with Other Evolutionary Techniques | p. 11 |
The Differential Evolution (DE) | p. 12 |
Classical DE - How Does it Work? | p. 12 |
The Complete DE Family of Storn and Price | p. 17 |
More Recent Variants of DE | p. 20 |
A Synergism of PSO and DE - Towards a New Hybrid Evolutionary Algorithm | p. 23 |
The PSO-DV Algorithm | p. 24 |
PSO-DV Versus Other State-of-the-Art Optimizers | p. 26 |
Applications | p. 29 |
Conclusions | p. 34 |
References | p. 34 |
Web Services, Policies, and Context: Concepts and Solutions | p. 39 |
Introduction | p. 39 |
The Proposed Composition Approach | p. 40 |
Presentation | p. 40 |
Description of the Three Levels | p. 41 |
Description of the Three Contexts | p. 43 |
Description of the Two Policies | p. 45 |
Role of Policies | p. 45 |
Behavioral Web Services | p. 45 |
Specification of Policies | p. 46 |
Exception Handling | p. 50 |
Rationale | p. 50 |
Exception Types per Policy Type | p. 51 |
Related Work | p. 52 |
Conclusion | p. 54 |
References | p. 54 |
Data Mining with Privacy Preserving in Industrial Systems | p. 57 |
Introduction | p. 57 |
Background and Motivation | p. 57 |
Our Solution | p. 59 |
Organization of the Chapter | p. 60 |
Literature Review | p. 60 |
Our Solution: Bloom Filter-Based Approach | p. 61 |
Bloom Filters | p. 62 |
Mining Processes and Algorithms | p. 64 |
Experiments | p. 66 |
Experimental Settings | p. 66 |
Experimental Results | p. 67 |
Conclusions | p. 70 |
References | p. 77 |
Kernels for Text Analysis | p. 81 |
Introduction | p. 81 |
Kernel Methods | p. 82 |
General Properties of Kernels | p. 82 |
Bag of Words Kernel | p. 83 |
String Kernels | p. 84 |
Gappy String Kernels | p. 85 |
Convolution Kernels | p. 86 |
Graph Kernels | p. 87 |
Application | p. 89 |
Bag of Features | p. 89 |
Graph Representation | p. 91 |
Evaluation Using Bag of Features | p. 93 |
Evaluation Using Graph Feature Representation | p. 94 |
Summary of the Experiments | p. 95 |
References | p. 96 |
Discovering Time-Constrained Patterns from Long Sequences | p. 99 |
Introduction | p. 99 |
Related Work | p. 102 |
Disjoint Occurrences | p. 103 |
Counting Algorithm | p. 105 |
Correctness of Algorithm | p. 109 |
Calculating and Estimating O-Frequency | p. 111 |
Conclusion | p. 115 |
References | p. 115 |
Gauging Image and Video Quality in Industrial Applications | p. 117 |
Overview of Practical Quality Metrics | p. 118 |
Basic Requirements | p. 118 |
Metric Classification | p. 119 |
Just-Noticeable Difference (JND) | p. 120 |
JND with Sine-Wave Gratings | p. 120 |
Formulation of CSF in DCT Domain | p. 121 |
JND for Real-World Video | p. 122 |
Visual Attention | p. 124 |
Feature Extraction | p. 125 |
Integration | p. 125 |
Modulation for JND | p. 126 |
Signal Decomposition | p. 126 |
Spatiotemporal Filtering | p. 126 |
Contrast Gain Control | p. 127 |
Common Artifact Detection | p. 128 |
Blockiness | p. 128 |
Blurring | p. 129 |
Frame Freeze | p. 129 |
Case Studies | p. 130 |
JNDmetrix™ as Quality Measurement | p. 130 |
Quality Monitoring Systems | p. 132 |
Modulated JNDs in Visual Communication | p. 133 |
Concluding Remarks | p. 133 |
References | p. 135 |
Model Construction for Knowledge-Intensive Engineering Tasks | p. 139 |
Introduction | p. 140 |
Top-Down Model Construction | p. 141 |
Top-Down Model Construction Support: A Classification Scheme | p. 142 |
Horizontal Model Construction | p. 146 |
Model Simplification | p. 148 |
Model Compilation | p. 149 |
Model Reformulation | p. 152 |
Discussion and Related Work | p. 153 |
Case Studies | p. 154 |
Case Study 1: Plant Design in Chemical Engineering | p. 155 |
Case Study 2: Generating Control Knowledge for Configuration Tasks | p. 158 |
Case Study 3: Synthesis of Wave Digital Structures | p. 161 |
Summary | p. 164 |
References | p. 164 |
Artificial Intelligence Applied to the Modeling and Implementation of a Virtual Medical Office | p. 169 |
Medical Diagnosis and Knowledge Transfer | p. 169 |
Case-Based Reasoning | p. 170 |
The History of CBR | p. 170 |
The CBR Cycle | p. 172 |
Genetic Algorithm | p. 173 |
Overview | p. 173 |
History | p. 173 |
Biological Terminology in a Simple GA | p. 174 |
The Latest Developments | p. 177 |
Context and Methodology | p. 178 |
The IACVIRTUAL Project | p. 178 |
The CBR Model | p. 178 |
The GA Model | p. 181 |
Case Study | p. 183 |
Database Preparation | p. 183 |
The Implementation of CBR Recovery | p. 184 |
The Implementation of the GA Module | p. 184 |
New Version of the CBR Module | p. 186 |
Results | p. 187 |
Conclusions | p. 188 |
References | p. 188 |
DICOM-Based Multidisciplinary Platform for Clinical Decision Support: Needs and Direction | p. 191 |
Introduction | p. 191 |
Multidisciplinary Health Studies | p. 193 |
DICOM Standard | p. 194 |
Initiatives | p. 195 |
DICOM Document | p. 195 |
Multidisciplinary DICOM Multimedia Archive | p. 196 |
Object-Oriented Approach | p. 198 |
Properties of DICOM Objects and Services | p. 199 |
Design of MDMA | p. 203 |
Biomedical Data Processing | p. 204 |
Biomedical Feature Extraction | p. 205 |
Biomedical Feature Selection | p. 206 |
Biomedical Knowledge Discovery | p. 207 |
Multidisciplinary Analytical Model | p. 208 |
Synergistic Clinical Decision Support Platform | p. 209 |
Conclusion and New Direction | p. 211 |
References | p. 211 |
Improving Neural Network Promoter Prediction by Exploiting the Lengths of Coding and Non-Coding Sequences | p. 213 |
Introduction | p. 213 |
Currently Used Algorithms | p. 214 |
Further Improvements in Promoter Prediction | p. 214 |
Gene Expression | p. 216 |
Statistical Characteristics on Quantitative Measurements | p. 217 |
The Algorithms for TLS-NNPP and TSC-TSS-NNPP | p. 220 |
Scenario 1-TLS-NNPP Algorithm | p. 222 |
Scenario 2-TSC-TSS-NNPP Algorithm | p. 224 |
Applications of the Algorithms TLS-NNPP and TSC-TSS-NNPP and the Comparisons to NNPP2.2 | p. 224 |
E. coli Sequence Study Using the TLS-NNPP Algorithm | p. 225 |
Human Sequence Study Using the TSS-TSC-NNPP Algorithm | p. 226 |
Conclusion | p. 228 |
References | p. 228 |
Artificial Immune Systems for Self-Nonself Discrimination: Application to Anomaly Detection | p. 231 |
Introduction | p. 231 |
Real Valued Negative Selection | p. 233 |
Recent Approaches | p. 233 |
Results with Koch Curve | p. 239 |
An Application to Anomaly Detection in Distribution Systems | p. 243 |
Conclusion and Further Research | p. 247 |
References | p. 248 |
Computational Intelligence Applied to the Automatic Monitoring of Dressing Operations in an Industrial CNC Machine | p. 249 |
Introduction | p. 249 |
Acoustic Emission in Grinding and Dressing | p. 250 |
Acoustic Maps | p. 251 |
Extracting Textural Features from Acoustic Maps | p. 254 |
The Gray-Level Co-Occurrence (GLC) Matrix | p. 254 |
Haralick's Textural Descriptors | p. 255 |
Pattern Classification | p. 256 |
Multi-Layer Perceptron (MLP) Networks | p. 257 |
Radial-Basis Function (RBF) Networks | p. 257 |
Support Vector Machine (SVM) | p. 258 |
Decision Trees (DT) | p. 258 |
Intelligent Monitoring of Dressing Operations | p. 259 |
Experiments and Results | p. 260 |
Experimental Setup | p. 261 |
Simulation Results | p. 262 |
Conclusions | p. 266 |
References | p. 267 |
Automated Novelty Detection in Industrial Systems | p. 269 |
Introduction | p. 269 |
Novelty Detection | p. 269 |
Chapter Overview | p. 270 |
Novelty Detection for Industrial Systems | p. 270 |
Existing Methods | p. 270 |
Pre-Processing | p. 272 |
Visualisation | p. 273 |
Constructing a Model of Normality | p. 276 |
Novelty Scores and Thresholds | p. 278 |
Gas-Turbine Data Analysis | p. 281 |
System Description | p. 282 |
Off-Line Novelty Detection | p. 283 |
On-Line Novelty Detection | p. 285 |
Discussion | p. 288 |
Combustion Data Analysis | p. 288 |
System Description | p. 289 |
Pre-Processing and Feature Extraction | p. 289 |
On-Line Novelty Detection | p. 290 |
Discussion | p. 292 |
Conclusion | p. 292 |
References | p. 293 |
Multiway Principal Component Analysis (MPCA) for Upstream/Downstream Classification of Voltage Sags Gathered in Distribution Substations | p. 297 |
Introduction | p. 297 |
Multiway Principal Component Analysis | p. 300 |
Proposed Method for Sag Source Location | p. 303 |
Database Construction | p. 305 |
Model Creation | p. 306 |
Model Exploitation | p. 306 |
Classification Results with Sags Gathered in Distribution Substations | p. 307 |
Conclusion | p. 310 |
References | p. 311 |
Applications of Neural Networks to Dynamical System Identification and Adaptive Control | p. 313 |
Introduction | p. 313 |
Rotorcraft Acoustic Noise Estimation | p. 317 |
The Time History Data Modeling | p. 318 |
The Sound Pressure Level Modeling | p. 321 |
A Neural Network Controller for DC Voltage Regulator | p. 323 |
References | p. 329 |
A Multi-Objective Multi-Colony Ant Algorithm for Solving the Berth Allocation Problem | p. 333 |
Introduction | p. 333 |
Problem Formulation | p. 335 |
Ant Colony Optimization | p. 337 |
Solution Encoding | p. 337 |
Pareto Ranking | p. 337 |
Solution Construction | p. 338 |
Multi-Objective Multi-Colony Ant Algorithm | p. 340 |
Island Model | p. 341 |
Heterogeneous Colonies | p. 341 |
Simulation Results and Analysis | p. 342 |
Performances of Different MOMCAA Settings | p. 342 |
Effects of Different Migration Intervals | p. 347 |
Conclusions | p. 348 |
References | p. 349 |
Query Rewriting for Semantic Multimedia Data Retrieval | p. 351 |
Introduction | p. 351 |
Preliminaries and Motivating Example | p. 352 |
MPEG-7: Multimedia Content Description Interface | p. 352 |
Illustration Example | p. 353 |
Querying MPEG-7 Descriptions | p. 354 |
MPEG-7 and XQuery Limitations | p. 355 |
Multimedia Data Description | p. 356 |
Multi-Layered Representation of Multimedia Content | p. 356 |
Conceptual Layer: Domain Knowledge Representation | p. 357 |
How to Integrate Domain Knowledge in MPEG-7 Descriptions | p. 360 |
How to Link the Conceptual Layer to the Metadata Layer | p. 361 |
Querying MPEG-7 Descriptions of Multimedia Data | p. 363 |
Query Form and Syntax | p. 363 |
Query Pre-Processing Algorithm | p. 363 |
Illustration Example | p. 365 |
Query Translation | p. 365 |
Implementation | p. 366 |
Multimedia Data Annotation | p. 366 |
Querying Multimedia Content | p. 367 |
Related Work | p. 367 |
Adding Semantics to MPEG-7 Descriptions | p. 367 |
Query Languages to Retrieve the MPEG-7 Descriptions | p. 369 |
Query Rewriting | p. 370 |
Conclusion | p. 370 |
References | p. 371 |
Index | p. 373 |
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The Used, Rental and eBook copies of this book are not guaranteed to include any supplemental materials. Typically, only the book itself is included. This is true even if the title states it includes any access cards, study guides, lab manuals, CDs, etc.