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9780849318757

Intelligent Control Systems Using Soft Computing Methodologies

by ;
  • ISBN13:

    9780849318757

  • ISBN10:

    0849318750

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 2001-03-27
  • Publisher: CRC Press

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Summary

In recent years, intelligent control has emerged as one of the most active and fruitful areas of research and development. Until now, however, there has been no comprehensive text that explores the subject with focus on the design and analysis of biological and industrial applications. Intelligent Control Systems Using Soft Computing Methodologies does all that and more.Beginning with an overview of intelligent control methodologies, the contributors present the fundamentals of neural networks, supervised and unsupervised learning, and recurrent networks. They address various implementation issues, then explore design and verification of neural networks for a variety of applications, including medicine, biology, digital signal processing, object recognition, computer networking, desalination technology, and oil refinery and chemical processes.The focus then shifts to fuzzy logic, with a review of the fundamental and theoretical aspects, discussion of implementation issues, and examples of applications, including control of autonomous underwater vehicles, navigation of space vehicles, image processing, robotics, and energy management systems. The book concludes with the integration of genetic algorithms into the paradigm of soft computing methodologies, including several more industrial examples, implementation issues, and open problems and open problems related to intelligent control technology.Suited as both a textbook and a reference, Intelligent Control Systems explores recent advances in the field from both the theoretical and the practical viewpoints. It also integrates intelligent control design methodologies to give designers a set of flexible, robust controllers and provide students with a tool for solving the examples and exercises within the book.

Table of Contents

Introduction
1(17)
Ali Zilouchian
Mo Jamshidi
Motivation
1(2)
Neural Networks
3(1)
Rationale for Using NN in Engineering
3(1)
Fuzzy Logic Control
4(2)
Rationale for Using FL in Engineering
5(1)
Evolutionary Computation
6(1)
Hybrid Systems
7(1)
Organization of the Book
8(9)
References
8(9)
Fundamentals of Neural Networks
17(22)
Ali Zilouchian
Introduction
17(1)
Basic Structure of a Neuron
18(6)
Model of Biological Neurons
18(1)
Elements of Neural Networks
19(1)
Weighting Factors
19(1)
Threshold
19(1)
Activation Function
19(5)
Adaline
24(1)
Linear Separable Patterns
25(1)
Single Layer Perceptron
26(5)
General Architecture
26(1)
Linear Classification
27(3)
Perceptron Algorithm
30(1)
Multi-Layer Perceptron
31(7)
General Architecture
31(1)
Input-Output Mapping
32(2)
XOR Realization
34(4)
Conclusion
38(1)
References
38(1)
Neural Network Architectures
39(28)
Hooman Yousefizadeh
Ali Zilouchian
Introduction
39(1)
NN Classifications
40(1)
Feedforward and feedback networks
40(1)
Supervised and Unsupervised Learning Networks
41(1)
Back Propagation Algorithm
41(10)
Delta Training Rule
43(8)
Radial Basis Function Network (RBFN)
51(5)
Kohonen Self Organization Network
56(6)
Training of the Kohonen Network
58(1)
Examples of Self-Organization
59(3)
Hopfield Network
62(3)
Conclusions
65(2)
References
66(1)
Applications of Neural Networks in Medicine and Biological Sciences
67(26)
Faramarz Valafar
Introduction
67(1)
Terminology and Standard Measures
67(5)
Recent Neural Network Research Activity in Medicine and Biological Sciences
72(16)
ANNs in Cancer Research
72(1)
ANN Biosignal Detection and Correction
73(6)
Decision-making in Medical Treatment Strategies
79(9)
Summary
88(5)
References
88(5)
Application of Neural Network in Design of Digital Filters
93(20)
Dali Wang
Ali Zilouchian
Introduction
93(1)
Problem Approach
94(3)
Neural Network for Identification
94(1)
Neural Network Structure
95(2)
A Training Algorithm for Filter Design
97(2)
Representation
97(1)
Training Objective
97(1)
Weight Adjustment
98(1)
The Training Algorithm
99(1)
Implementation Issues
99(1)
Identifying a System in Canonical Form
99(1)
Stability, Convergence, Learning Rate and Scaling
100(1)
Filter Design Using Neural Network
100(3)
Two-imensional Signal and Digital Filters
100(1)
Design Techniques
101(1)
Neural Network Approach
102(1)
Simulation Results
103(6)
1-D Filters
103(4)
2 D Filters
107(2)
Conclusions
109(4)
References
110(3)
Application of Computer Networking Using Neural Network
113(26)
Homayoun Yousefizadeh
Introduction
113(1)
Self Similar Packet Traffic
113(6)
Fractal Properties of Packet Traffic
114(4)
Impacts of Fractal Nature of Packet Traffic
118(1)
Neural Network Modeling of Packet Traffic
119(11)
Perceptron Neural Networks and Back Propagation Algorithm
119(3)
Modeling Individual Traffic Patterns
122(4)
Modeling Aggregated Traffic Patterns
126(4)
Applications of Traffic Modeling
130(6)
Packet Loss Prevention
130(4)
Packet Latency Prediction
134(2)
Experimental Observations
136(1)
Summary
136(3)
References
137(2)
Application of Neural Networks in Oil Refineries
139(20)
Ali Zilouchian
Khalid Bawazir
Introduction
139(1)
Building the Artificial Neural Network
140(4)
Range of Input Data
141(1)
Size of the Training Data Set
142(1)
Acquiring the Training Data Set
142(1)
Validity of the Training Data Set
142(1)
Selecting Process Variables
142(2)
Data Analysis
144(3)
Elimination of Bad Lab Values
144(1)
Process Parameters' Effect on Neural Network Prediction
145(2)
Implementation Procedure
147(2)
Identifying the Application
147(1)
Model Inputs Identification
148(1)
Range of Process Variables
149(1)
Prdictor Model Training
149(2)
Simulation Results and Discussions
151(5)
Naphtha 95% Cut Point
152(4)
Naphtha Reid Vapor Pressure
156(1)
Conclusions
156(3)
References
157(2)
Introduction to Fuzzy Sets: Basic Definitions and Relations
159(16)
Mo Jamshidi
Aly El-Osery
Introduction
159(1)
Classical Sets
160(1)
Classical Set Operations
160(2)
Properties of Classical Sets
162(1)
Fuzzy Sets
163(2)
Fuzzy Membership Functions
163(2)
Fuzzy Set Operations
165(1)
Properties of Fuzzy Sets
166(4)
Alpha-Cut Fuzzy Sets
168(1)
Extension Principle
168(2)
Classical Relations vs. Fuzzy Relations
170(3)
Conclusion
173(2)
References
173(2)
Introduction to Fuzzy Logic
175(12)
Mo Jamshidi
Aly El-Osery
Timothy J. Ross
Introduction
175(1)
Predicate Logic
176(6)
Tautologies
179(1)
Contradictions
180(1)
Deductive Inferences
180(2)
Fuzzy Logic
182(2)
Approximate Reasoning
184(1)
Conclusion
185(2)
References
185(2)
Fuzzy Control and Stability
187(26)
Mo Jamshidi
Aly El-Osery
Introduction
187(1)
Basic Definitions
188(6)
Inference Engine
191(2)
Defuzzification
193(1)
Fuzzy Control Design
194(1)
Analysis of Fuzzy Control Systems
195(4)
Stability of Fuzzy Control Systems
199(11)
Lyapunov Stability
203(4)
Stability via Interval Matrix Method
207(3)
Conclusion
210(3)
References
210(3)
Soft Computing Approach to Safe Navigation of Autonomous Planetary Rovers
213(30)
Edward Tunstel
Homayoun Seraji
Ayanna Howard
Introduction
213(2)
Practical Issues in Planetary Rover Applications
213(2)
Navigation System Overview
215(2)
Fuzzy-Behaviour-Based Structure
216(1)
Fuzzy-Logic-Based Rover Health and Safety
217(8)
Health and Safety Indicators
217(2)
Stable Attitude Control
219(2)
Traction Management
221(1)
Neuro-Fuzzy Solution
222(3)
Fuzzy Terrain-Based Navigation
225(4)
Visual Terrain Traversability Assessment and Fuzzy Reasoning
226(1)
Terrain Roughness Extraction
226(2)
Terrain Slope Extraction
228(1)
Fuzzy Inference of Terrain Traversability
229(1)
Strategic Fuzzy Navigation Behaviors
229(5)
Seek-Goal Behavior
230(1)
Traverse-Terrain Behavior
231(1)
Avoid-Obstacle Behavior
232(1)
Fuzzy-Behavior Fusion
233(1)
Rover Test Bed and Experimental Results
234(5)
Safe Mobility
235(3)
Safe Navigation
238(1)
Summary and Conclusions
239(4)
Acknowledgement
240(1)
References
240(3)
Autonomous Underwater Vehicle Control Using Fuzzy Logic
243(18)
Feijun Song
Samuel M. Smith
Introduction
243(1)
Background
243(1)
Autonomous Underwater Vehicles (AUVs)
244(1)
Sliding Mode Control
245(3)
Sliding Mode Fuzzy Control (SMFC)
248(2)
SMFC Design Examples
250(5)
Guidelines for Online Adjustment
255(1)
Sliding Slope λ Effects
256(1)
Thickness of the Boundary Layer φ Effects
256(1)
At Sea Experimental Results
256(2)
Summary
258(3)
References
258(3)
Application of Fuzzy Logic for Control of Heating, Chilling, and Air Conditioning Systems
261(30)
Reza Talebi-Daryani
Introduction
261(1)
Building Energy Management System (BEMS)
262(3)
System Requirements
262(2)
System Configuration
264(1)
Automation Levels
264(1)
Air Conditioning System: FLC vs. DDC
265(9)
Process Description
265(1)
Process Control
266(1)
Digital PID Controller
267(1)
Fuzzy Cascade Controller
268(5)
DDC vs. FLC
273(1)
Fuzzy Control for the Operation Management of a Complex Chilling System
274(6)
Process Description
274(1)
Process Operation with FLC
275(1)
Description of the Different Fuzzy Controllers
276(3)
System Performance and Optimization with FLC
279(1)
Application of Fuzzy Control for Energy Management of a Cascade Heating Center
280(9)
The Heating System
280(2)
FLC for System Optimization
282(1)
FLC Description
283(4)
Temperature Control: Fuzzy vs. Digital
287(2)
Conclusions
289(2)
References
290(1)
Application of Adaptive Neuro-Fuzzy Inference Systems to Robotics
291(26)
Ali Zilouchian
David Howard
Introduction
291(1)
Adaptive Neuro-Fuzzy Inference Systems
292(2)
Inverse Kinematics
294(9)
Solution of Inverse Kinematics Using Fuzzy Logic
295(2)
Solution of Inverse Kinematics Using ANFIS
297(1)
Simulation Experiments
297(6)
Controller Design of Microbot
303(10)
Design of a Conventional Controller
304(2)
Hierarchical Control
306(1)
ANFIS Controller for Microbot
307(6)
Conclusions
313(4)
References
313(4)
Application of Soft Computing for Desalination Technology
317(34)
Mutaz Jafar
Ali Zilouchian
Introduction
317(1)
General Background on Desalination and Reverse Osmosis
318(5)
Critical Control Parameters
319(1)
Temperature
319(1)
Pressure
320(1)
Recovery
320(1)
Feed pH
320(2)
Salt Rejection
322(1)
Scaling
322(1)
Predictive Modeling Using Neural Networks
323(3)
Redistributed Receptive Fields of RBFN
324(1)
Data Clustering
324(1)
Histogram Equalization
325(1)
Widths of Receptive Fields
325(1)
Case Studies
326(8)
Beach Well Seawater Intake
326(1)
Simulation Results
327(2)
A Ground Water Intake
329(1)
A Direct Seawater Intake
330(1)
Scaling Simulation
330(4)
Fuzzy Logic Control
334(12)
Chemical Dosing Control
337(1)
Fuzzy Rule Base
338(1)
Membership Functions
338(1)
Decision Matrix
338(1)
Results and Discussion
338(3)
High-Pressure Control
341(1)
Fuzzy Rule Base
341(1)
Decision Matrix
341(1)
Results and Discussion
342(1)
Flow Rate Control
342(1)
Fuzzy Rule Base for Flow Control
342(3)
Decision Matrix
345(1)
Results and Discussion
346(1)
Application of ANFIS to RO Parameters
346(1)
ANFIS Simulation Results
346(1)
Conclusion
346(5)
References
349(2)
Computational Intelligence Approach to Object Recognition
351(14)
K.C. Tan
T.H. Lee
M.L. Wang
Introduction
351(1)
Object Recognition by Neural Feature Extraction and Fuzzy Combination
352(6)
Feature Extraction by Neural Network
354(1)
Fuzzy State Dependent Modulation
355(1)
Combination of Features Extracted from Multiple Sources with Fuzzy Reasoning
356(2)
A Face Recognition Application
358(4)
Conclusions
362(3)
References
363(2)
An Introduction to Evolutionary Computation
365(16)
Gerry Dozier
Abdollah Homaifar
Edward Tunstel
Darryl Battle
Introduction
365(1)
An Overview of Genetic Search
365(8)
The Genetic Representation of Candidate Solutions
366(1)
Population Size
367(1)
Evaluation Function
367(1)
Genetic Operators
368(1)
Single Point Crossover
368(1)
Uniform Crossover
369(1)
Mutation
370(1)
The Selection Algorithm
370(1)
Proportionate Selection
371(1)
Linear Rank Selection
372(1)
Tournament Selection
372(1)
Generation Gap
372(1)
Elitism
373(1)
Duplicates
373(1)
Genetic Search
373(3)
Genetic Programming
376(2)
Structure Representation
376(1)
Closure and Sufficiency
376(1)
Fitness Evaluation
377(1)
Genetic Operators
377(1)
Summary
378(3)
Acknowledgments
378(1)
References
378(3)
Evolutionary Concepts for Image Processing Applications
381(28)
Madjid Fathi
Lars Hildebrand
Introduction
381(1)
Optimization Techniques
381(4)
Basic Types of Optimization Methods
381(1)
Deterministic Optimization Methods
382(1)
Minimization in the Direction of the Coordinates
382(1)
Minimization in the Direction of the Steepest Slope
382(1)
Simplex Minimization
383(1)
Probabilistic Optimization Methods
383(2)
Evolutionary Strategies
385(12)
Biological Evolution
385(2)
Mechanisms of Evolution Strategy
387(7)
The (1+1) Evolutionary Strategy
394(1)
The (ν+1) Evolutionary Strategy
395(1)
The (ν,λ) Evolutionary Strategy
396(1)
Image Processing Applications
397(8)
Generating Fuzzy Sets for Linguistic Color Processing
398(1)
Resistance Spot Welding
398(1)
Linguistic Color Processing
399(3)
Developing Specialized Digital Filters
402(1)
Digital Image Filters
403(2)
Optimization of Digital Filters
405(1)
Conclusion
405(4)
References
406(3)
Evolutionary Fuzzy Systems
409(28)
Mohammad R. Akbarzadeh-T.
A.H. Meghdadi
Introduction
409(3)
The Problem Statement and Design Outline
410(2)
Free Parameters
412(2)
Competing Conventions
413(1)
Design of Interpretation (Encoding) Function
414(8)
Membership Functions
414(1)
Triangular Membership Functions
415(1)
Non-triangular Membership Functions
416(1)
General Method of MF Encoding
417(1)
Rule Encoding
417(1)
A Control System Problem Formulation
418(4)
The Initial Population
422(5)
Grandparenting: A Method of Incorporating a priori Expert Knowledge
424(3)
Fitness Function
427(2)
Speed Regulation of a DC Motor
429(4)
The Control Architecture
431(1)
Results
431(2)
Current Problems and Challenges
433(1)
Summary and Results
434(3)
Acknowledgement
435(1)
References
435(2)
Genetic and Evolutionary Methods for Mobile Robot Motion Control and Path Planning
437(18)
Abdollah Homaifar
Edward Tunstel
Gerry Dozier
Darryl Battle
Introduction
437(1)
Genetic Programming for Path Tracking Control
437(4)
Path Tracking Formulation
438(1)
GP Solution
439(1)
Controller Fitness Evaluation
440(1)
Path Tracking Simulation Result
441(4)
Evolved Controller Robustness
444(1)
Evolutionary Path Planning
445(4)
Evolutionary Path Planning System
446(1)
Environment and Path Representation
446(1)
Visibility-Based Repair of Candidate Paths
446(2)
Path Evaluation, Selection, and Evolutionary Operators
448(1)
Path Evolution with Fuzzy Selection
449(3)
Fuzzy Inference System
449(2)
Experimental Example
451(1)
Summary and Conclusions
452(3)
Acknowledgments
453(1)
References
453(2)
Problems and Matlab Programs
455(14)
Ali Zilouchian
Mo Jamshidi
Introduction
455(1)
Neural Network Problems
455(5)
Fuzzy Logic Problems
460(4)
Applications
464(2)
MATLAB Programs
466(3)
Index 469

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