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9780471980957

Intelligent System Applications in Power Engineering Evolutionary Programming and Neural Networks

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  • ISBN13:

    9780471980957

  • ISBN10:

    0471980951

  • Edition: 1st
  • Format: Hardcover
  • Copyright: 1998-09-16
  • Publisher: Wiley
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Summary

Cutting-edge research indicates that evolutionary programming is set to emerge as the dominant optimisation technique in the fast-changing power industry. Combining theory and practice, Intelligent System Applications in Power Engineering capitalises on the potential of neural networks and evolutionary computation to resolve real-world power engineering problems such as load forecasting, power system operation and planning optimisation. Unlike existing optimisation methods, these novel computational intelligence techniques provide power utilities with innovative solutions for improved performance. Features include:
* Introduction to evolutionary programming and neural networks serving as a foundation for later discussion of the benefits of hybrid systems
* Practical application of evolutionary programming to reactive power planning and dispatch for speedy, cost-effective increases in transmission capacity plus generator parameter estimation
* Examination of economic dispatch, power flow control in FACTS and co-generation scheduling and fault diagnosis for HVDC systems and transformers
* Consideration of power frequency and harmonic evaluation to maximise supply quality
* Employment of distance protection, faulty section estimation and calculation of fault clearing time for transient stability assessment
Graduate students in electric power engineering will value Lai s broad coverage of the applications of evolutionary programming and neural networks in the field. This unique reference will be a boon to engineers, computer application specialists, consultants and utility managers wishing to understand the benefits intelligent systems can bring to the power industry.

Author Biography

Loi Lei Lai graduated from Aston University in Birmingham with a BSc and a PhD. He was awarded a DSc by City University London. He is also an honrorary graduate of City University. In 1984, he was appointed Senior Lecturer at Staffordshire Polytechnic. From 1986 to 1987, he was a Royal Academy of Engineering Industrial Fellow to both GEC Alsthom Turbine Generators Ltd and the Engineering research Centre. He is currently Head of Energy Systems Group and Chair in Electrical Engineering at City University London. In the last decade, Professor Lai has authored/co-authored 200 technical publications. He has also written a book entitled Intelligent System Applications in Power Engineering - Evolutionary Programming and Neural Networks and, in 2001, edited the book Power System Restructuring and Deregulation - Trading, Performance and Information Technology, both published by John Wiley & Sons, Ltd. He was award the IEEE Third Millennium Medal and won the IEEE Power Engineering Society, United Kingdom and Republic of Ireland (UKRI), chapter, Outstanding Engineer Award in 2003. In 1995, he received a high-quality paper prize from the International Association of Desalination, USA and in 2006 he was awarded a Prize paper by the IEEE Power Generation Committee. He is a Fellow of the IEEE and the IET (Institution of Engineering and Technology).
Among his professional activities, he is a Founder and was the Conference Chairman of the international Conference on Power Utility Deregulation, Restructuring man of the International Conference on Power Utility Deregulation, Restructuring and Power Technologies (DRPT) 2000, co-sponsored by the IEEE (now IET) and Power Technologies (DRPT) 2000, co-sponsored by the IEE (now IET) and IEEE. He reviews grant proposals regularly for the EPSRC, Australian Research Council and Hong Kong research Grant Council. In 2001, he was invited by the Hong Kong Institution of Engineers to be Chairman of an Accreditation Visit Team to accredit the BEng (Hons) degree in Electrical Engineering. Since 2005, Professor Lai has been invited as a judge for the Power/Energy Category in the IET Innovation in Engineering Awards. He was also Student Recruitment Office of the IEEE UKRI Section Executive Committee. He is a member of the Intelligent Systems Subcommittee in Power System Analysis, Computing and Economic Committee, IEEE Power Engineering Society; a Member of the Executive Team of the Power Trading and Control Technical and Professional Network, IET; an Editor of the IEE Proceedings - Generation, Distribution and Generation (now IET Generation, Distribution and Generation); an Editorial Board Member of the International Journal of Electrical Power & Energy Systems published by Elsevier Science Ltd, UK; International Advisor, Hong Kong Institution of Engineers (HKIE) Transactions and an Editorial Board Member of the European Transactions on Electrical Power published by John Wiley & Sons, Ltd. He was a research Professor at Tokyo Metropolitan University, is also Visiting professor at Southeast University Nanjing and Guest Professor at Fudan University, Shanghai. He has also been invited to deliver keynote addresses and plenary speeches to several major international conferences sponsored by the IET and IEEE.

Table of Contents

Preface xv
Acknowledgments xix
About the author xxi
Object-Oriented Analysis, Design and Development of Artificial Neural Networks
1(36)
Introduction
1(5)
ANN Architectures
2(1)
Feedforward Multilayer ANNs
2(1)
Structure of ANNs
2(4)
Object-Oriented Design (OOD)
6(2)
Object-Oriented Analysis
6(1)
Finding Objects
7(1)
Organising Objects
7(1)
Describing Object Interaction
7(1)
Defining Operations on Objects
7(1)
Object-Oriented Design
8(1)
Implementation
8(1)
Object-Oriented Testing
8(1)
OOD Approach to Artificial Neural Networks
8(4)
Identifying Objects
8(1)
The Data Dictionary
9(3)
Learning in ANNs
12(12)
Data Representation in ANNs
12(1)
What ANNs Learn
13(1)
Learning Algorithms in ANNs
14(1)
Unsupervised Learning Networks
15(1)
Clustering Networks
16(1)
Vector Quantisation
17(1)
Supervised Learning
18(1)
Decision-Based Supervised Learning
18(1)
Approximation-Based Supervised Learning
19(2)
Backpropagation Learning Algorithm for Multilayer Perceptron Networks
21(1)
Supervised Learning Parameters
22(2)
Speeding up Supervised Learning
24(1)
Analysis, Design and Implementation of ANNs
24(5)
Software Architecture
25(1)
System Development
25(1)
Software Life-Cycle Models
26(1)
The Waterfall Life-Cycle Model
26(1)
The Evolutionary Life-Cycle Model
27(1)
Prototyping
27(1)
Phases of Software Development
28(1)
Object-Oriented Analysis and Design of Feedforward ANNs (FANNs)
29(5)
FANNs
29(1)
Organising the Objects
30(1)
Describing Object Interactions
30(1)
Defining Operations on Objects
31(1)
ANN Systems Design
32(2)
Implementation and Testing
34(1)
Conclusions
34(1)
References
35(2)
Evolutionary Computation
37(32)
Introduction
37(1)
Genetic Algorithms (GAS)
38(5)
Features of GAS
39(4)
Object-Oriented Analysis of GAS
43(3)
Identifying Objects in the GA Domain
43(1)
The Data Dictionary
44(1)
Discovering Object Operations
45(1)
Object-Oriented GA Design
46(12)
Object Design
47(3)
Implementation
50(1)
Object-Oriented Testing
50(8)
Evolutionary Programming (EP)
58(4)
Features of EP
59(1)
Two Simple Algorithms for EP
59(1)
Classical EP
60(1)
Adaptive EP with β
60(2)
Object-Oriented Analysis, Design and Implementation of EP
62(5)
Object-Oriented Analysis of EP
62(1)
The Data Dictionary
62(1)
Developing Object Operations
62(1)
Object-Oriented EP Design
63(1)
Object Design
64(3)
Implementation
67(1)
Object-Oriented Testing
67(1)
References
67(2)
Hybrid Evolutionary Algorithms and Artificial Neural Networks
69(14)
Introduction
69(1)
Why Develop EANNs?
70(1)
EANN Methods
71(1)
The Evolution of EANN Weights
71(2)
Representation of Connection Weights
73(1)
The Evolution of an EANN Architecture
73(1)
The Evolution of EANN Training Algorithms
74(2)
The EANN Framework
76(1)
OO GA-ANN Hybridisation
77(2)
OO EP-ANN Hybridisation
79(1)
Conclusions
80(1)
References
81(2)
An Evolutionary Programming Approach to Reactive Power Planning
83(26)
Introduction
83(2)
Problem Formulation
85(3)
Evolutionary Programming (EP)
88(3)
Initialisation
88(1)
Statistics
88(1)
Mutation
88(1)
Competition
89(1)
Inner Loop Convergence Criterion
89(1)
Outer Loop Convergence Criterion
89(2)
Numerical Results
91(6)
Initial Power Flow Results
92(2)
EP Optimal Results
94(2)
Comparison with the BFGS Method
96(1)
Practical Results
97(5)
Conclusions
102(1)
Acknowledgments
102(1)
References
103(1)
Appendix
104(5)
Optimal Reactive Power Dispatch Using Evolutionary Programming
109(8)
Introduction
109(1)
Problem Formulation
110(1)
Evolutionary Programming (EP)
111(1)
Initialisation
112(1)
Numerical Results
112(3)
Initial Condition
112(2)
Optimal Results
114(1)
Conclusions
115(1)
Acknowledgements
115(1)
References
115(2)
Application of Evolutionary Programming to Transmission Network Planning
117(10)
Introduction
117(1)
Problem Formulation
118(3)
Evolutionary Programming
121(1)
Initialisation
121(1)
Numerical Results
121(5)
Conclusions
126(1)
Acknowledgments
126(1)
References
126(1)
Application of Evolutionary Programming to Generator Parameter Estimation
127(14)
Introduction
127(1)
The Generator Model in a Power System
128(3)
The EP Parameter Estimation Algorithm
131(2)
Initialisation
132(1)
Integration
132(1)
Mutation
132(1)
Results
133(4)
Simulation Results
134(1)
Micromachine Identification Results
135(2)
Conclusions
137(1)
Acknowledgments
137(1)
References
137(1)
Appendix
138(3)
Evolutionary Programming for Economic Dispatch of Units with Non-Smooth Input-Output Characteristic Functions
141(8)
Introduction
141(1)
Problem Formulation
142(3)
Valve Point Effect
143(1)
Objective Function
144(1)
Evolutionary Programming (EP)
145(1)
Initialisation
145(1)
Numerical Results
145(2)
Conclusions
147(1)
Acknowledgements
147(1)
References
147(2)
Power Flow Control in Facts Using Evolutionary Programming
149(10)
Introduction
149(1)
Facts Model
150(2)
Phase Shifter
150(2)
Series Compensator
152(1)
Problem Formulation
152(2)
Evolutionary Programming (EP)
154(1)
Initialisation
154(1)
Numerical Results
154(2)
Conclusions
156(1)
Acknowledgments
156(1)
References
156(3)
Multi-Time-Interval Scheduling for Daily Operation of a Two-Co-Generation System with Evolutionary Programming
159(12)
Introduction
159(2)
Modelling of Multi-Co-Generation Systems
161(3)
Evolutionary Programming (EP)
164(1)
Initialisation
165(1)
Case Study
165(3)
Initial Result
166(1)
Optimal Result
167(1)
Conclusions
168(1)
Acknowledgments
168(1)
References
168(3)
Application of Evolutionary Programming to Fault Section Estimation
171(12)
Introduction
171(1)
Problem Formulation
172(1)
Mathematical Model and Fitness Function
173(2)
Evolutionary Programming (EP)
175(1)
Initialisation
175(1)
Genetic Algorithms (GAS)
175(1)
EP VS. GA
176(1)
Case Study
176(4)
Conclusions
180(1)
Acknowledgments
181(1)
References
181(2)
Neural Networks for Fault Diagnosis in HVDC Systems
183(12)
Introduction
183(1)
Fault Diagnosis
184(1)
Pattern Classification
184(1)
Feature Extraction
184(1)
Classification Procedure
185(1)
HVDC Systems
185(5)
Rectifier Current Control
187(1)
Inverter CEA Controller
188(1)
Firing Pulse Detectors
188(1)
Non-linearities in Components
189(1)
Converter Faults
189(1)
Test Cases
190(1)
Conclusions
191(2)
References
193(2)
An ANN Approach to the Diagnosis of Transformer Faults
195(14)
Introduction
195(1)
Dissolved Gas Analysis
196(1)
Key Gas Method
196(1)
Ratio Methods
197(1)
IEC Codes for Dissolved Gas Analysis
197(2)
Fuzzy Sets of IEC Gas Ratio Codes
199(2)
Fuzzy Sets of Key Gases
201(1)
Results
201(1)
The Artificial Neural Network
202(1)
The ANN Approach to Fault Diagnosis
203(1)
The ANN for Major Fault Type Diagnosis
203(1)
The ANN for Cellulose Condition Detection
204(1)
ANN Diagnosis Results
204(2)
Discussion
206(1)
Conclusions
206(1)
References
206(3)
Real-Time Frequency and Harmonic Evaluation Using Artificial Neural Networks
209(11)
Introduction
209(2)
Non-Linear Least Squares
211(1)
NN Formulation
212(2)
The Dynamic Gradient System
212(1)
Neural Network Implementation
213(1)
Model Validation by Simulation
214(1)
Real Application of the System
215(3)
Conclusions
218(1)
Acknowledgments
219(1)
References
220(15)
Artificial Neural Network Applications in Digital Distance Relay
221(1)
Introduction
221(1)
The Adverse Effect of Fault Resistance
222(1)
An Adaptive Relaying Scheme
222(2)
An Ideal Trip Characteristic
224(1)
Use of ANNS in Identifying Trip Region
224(4)
Design of an ANN
225(1)
Pre-Fault Setting for On-Line Training and Testing
225(1)
Trip Decision Making
226(1)
NN Training Result
226(1)
Testing Patterns and Results
227(1)
Effect of Power Flow Changes on the Ideal Operating Region
228(3)
Decrease in Power Flow
228(1)
Increase in Power Flow
229(1)
Increase in Active and Reactive Power Flows
230(1)
Proposed Tripping Scheme
231(1)
Off-Line Training of the NN
232(1)
Conclusions
232(1)
References
232(3)
Application of Artificial Neural Networks to Transient Stability Assessment
235(10)
Introduction
235(1)
Transient Stability
236(1)
Critical Clearing Time (CCT)
236(1)
Methods of Fast Assessment of CCT
237(1)
Neural Network (NN) Application
237(2)
Training Patterns
237(1)
Training Features
238(1)
Pre-Conditioning of Training Patterns
239(1)
Performance of the ANN
239(2)
Training
240(1)
Testing
241(1)
Discussion
241(1)
Conclusions
242(1)
References
242(3)
Application of Neural Networks and Evolutionary Programming to Short-Term Load Forecasting
245(8)
Introduction
245(1)
Load Forecasting with ANNS
246(2)
Simulation Results
248(2)
The NN Approach
248(1)
The EP-ANN Approach
249(1)
Conclusions
250(1)
References
250(3)
Select Bibliography 253(8)
Index 261

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