Balıkesir Üniversitesi
Kütüphane ve Dokümantasyon Daire Başkanlığı

Intelligent automatic generation control / (Kayıt no. 30199)

MARC ayrıntıları
000 -LEADER
fixed length control field 07231nam a2200301 i 4500
008 - FIXED-LENGTH DATA ELEMENTS--GENERAL INFORMATION
fixed length control field 120620s2011 flu b a001 0 eng d
020 ## - INTERNATIONAL STANDARD BOOK NUMBER
International Standard Book Number 9781439849538
International Standard Book Number 1439849536
040 ## - CATALOGING SOURCE
Original cataloging agency BAUN
Language of cataloging eng
Transcribing agency BAUN
Description conventions rda
049 ## - LOCAL HOLDINGS (OCLC)
Holding library BAUN_MERKEZ
050 04 - LIBRARY OF CONGRESS CALL NUMBER
Classification number TK1005
Item number .B48 2011
100 1# - MAIN ENTRY--PERSONAL NAME
Personal name Bevrani, Hassan
245 10 - TITLE STATEMENT
Title Intelligent automatic generation control /
Statement of responsibility, etc Hassan Bevrani, Takashi Hiyama
264 #1 - PRODUCTION, PUBLICATION, DISTRIBUTION, MANUFACTURE, AND COPYRIGHT NOTICE
Place of production, publication, distribution, manufacture Boca Raton :
Name of producer, publisher, distributor, manufacturer CRC Press,
Date of production, publication, distribution, manufacture, or copyright notice [2011]
Date of production, publication, distribution, manufacture, or copyright notice ©2011
300 ## - PHYSICAL DESCRIPTION
Extent xvii, 290 pages :
Other physical details illustrations ;
Dimensions 24 cm
336 ## - CONTENT TYPE
Content Type Term text
Content Type Code txt
Source rdacontent
337 ## - MEDIA TYPE
Media Type Term unmediated
Media Type Code unmediated
Source rdamedia
338 ## - CARRIER TYPE
Carrier Type Term volume
Carrier Type Code volume
Source rdacarrier
504 ## - BIBLIOGRAPHY, ETC. NOTE
Bibliography, etc Includes bibliographical references and index
505 00 - FORMATTED CONTENTS NOTE
Title Table Of Contents:
-- Preface
-- Acknowledgments
-- 1 Intelligent Power System Operation and Control: Japan Case Study
-- 1.1 Application of Intelligent Methods to Power Systems
-- 1.2 Application to Power System Planning
-- 1.2.1 Expansion Planning of Distribution Systems
-- 1.2.2 Load Forecasting
-- 1.2.3 Unit Commitment
-- 1.2.4 Maintenance Scheduling
-- 1.3 Application to Power System Control and Restoration
-- 1.3.1 Fault Diagnosis
-- 1.3.2 Restoration
-- 1.3.3 Stabilization Control
-- 1.4 Future Implementations
-- 1.5 Summary
-- References
-- 2 Automatic Generation Control (AGC): Fundamentals and Concepts
-- 2.1 AGC in a Modern Power System
-- 2.2 Power System Frequency Control
-- 2.2.1 Primary Control
-- 2.2.2 Supplementary Control
-- 2.2.3 Emergency Control
-- 2.3 Frequency Response Model and AGC Characteristics
-- 2.3.1 Droop Characteristic
-- 2.3.2 Generation-Load Model
-- 2.3.3 Area Interface
-- 2.3.4 Spinning Reserve
-- 2.3.5 Participation Factor
-- 2.3.6 Generation Rate Constraint
-- 2.3.7 Speed Governor Dead-Band
-- 2.3.8 Time Delays
-- 2.4 A Three-Control Area Power System Example
-- 2.5 Summary
-- References
-- 3 Intelligent AGC: Past Achievements and New Perspectives
-- 3.1 Fuzzy Logic AGC
-- 3.1.1 Fuzzy Logic Controller
-- 3.1.2 Fuzzy-Based PI (PID) Controller
-- 3.2 Neuro-Fuzzy and Neural-Networks-Based AGC
-- 3.3 Genetic-Algorithm-Based AGC
-- 3.4 Multiagent-Based AGC
-- 3.5 Combined and Other Intelligent Techniques in AGC
-- 3.6 AGC in a Deregulated Environment
-- 3.7 AGC and Renewable Energy Options
-- 3.7.1 Present Status and Future Prediction
-- 3.7.2 New Technical Challenges
-- 3.7.3 Recent Achievements
-- 3.8 AGC and Microgrids
-- 3.9 Scope for Future Work
-- 3.9.1 Improvement of Modeling and Analysis Tools
-- 3.9.2 Develop Effective Intelligent Control Schemes for Contribution of DGs/RESs in the AGC Issue
-- 3.9.3 Coordination between Regulation Powers of DGs/RESs and Conventional Generators
-- 3.9.4 Improvement of Computing Techniques and Measurement Technologies
-- 3.9.5 Use of Advanced Communication and Information Technology
-- 3.9.6 Update/Define New Grid Codes
-- 3.9.7 Revising of Existing Standards
-- 3.9.8 Updating Deregulation Policies
-- 3.10 Summary
-- References
-- 4 AGC in Restructured Power Systems
-- 4.1 Control Area in New Environment
-- 4.2 AGC Configurations and Frameworks
-- 4.2.1 AGC Configurations
-- 4.2.2 AGC Frameworks
-- 4.3 AGC Markets
-- 4.4 AGC Response and an Updated Model
-- 4.4.1 AGC System and Market Operator
-- 4.4.2 AGC Model and Bilateral Contracts
-- 4.4.3 Need for Intelligent AGC Markets
-- 4.5 Summary
-- References
-- 5 Neural-Network-Based AGC Design
-- 5.1 An Overview
-- 5.2 ANN-Based Control Systems
-- 5.2.1 Fundamental Element of ANNs
-- 5.2.2 Learning and Adaptation
-- 5.2.3 ANNs in Control Systems
-- 5.3 Flexible Neural Network
-- 5.3.1 Flexible Neurons
-- 5.3.2 Learning Algorithms in an FNN
-- 5.4 Bilateral AGC Scheme and Modeling
-- 5.4.1 Bilateral AGC Scheme
-- 5.4.2 Dynamical Modeling
-- 5.5 FNN-Based AGC System
-- 5.6 Application Examples
-- 5.6.1 Single-Control Area
-- 5.6.2 Three-Control Area
-- 5.7 Summary
-- References
-- 6 AGC Systems Concerning Renewable Energy Sources
-- 6.1 An Updated AGC Frequency Response Model
-- 6.2 Frequency Response Analysis
-- 6.3 Simulation Study
-- 6.3.1 Nine-Bus Test System
-- 6.3.2 Thirty-Nine-Bus Test System
-- 6.4 Emergency Frequency Control and RESs
-- 6.5 Key Issues and New Perspectives
-- 6.5.1 Need for Revision of Performance Standards
-- 6.5.2 Further Research Needs
-- 6.6 Summary
-- References
-- 7 AGC Design Using Multiagent Systems
-- 7.1 Multiagent System (MAS): An Introduction
-- 7.2 Multiagent Reinforcement-Learning-Based AGC
-- 7.2.1 Multiagent Reinforcement Learning
-- 7.2.2 Area Control Agent
-- 7.2.3 RL Algorithm
-- 7.2.4 Application to a Thirty-Nine-Bus Test System
-- 7.3 Using GA to Determine Actions and States
-- 7.3.1 Finding Individual's Fitness and Variation Ranges
-- 7.3.2 Application to a Three-Control Area Power System
-- 7.4 An Agent for β Estimation
-- 7.5 Summary
-- References
-- 8 Bayesian-Network-Based AGC Approach
-- 8.1 Bayesian Networks: An Overview
-- 8.1.1 BNs at a Glance
-- 8.1.2 Graphical Models and Representation
-- 8.1.3 A Graphical Model Example
-- 8.1.4 Inference
-- 8.1.5 Learning
-- 8.2 AGC with Wind Farms
-- 8.2.1 Frequency Control and Wind Turbines
-- 8.2.2 Generalized ACE Signal
-- 8.3 Proposed Intelligent Control Scheme
-- 8.3.1 Control Framework
-- 8.3.2 BN Structure
-- 8.3.3 Estimation of Amount of Load Change
-- 8.4 Implementation Methodology
-- 8.4.1 BN Construction
-- 8.4.2 Parameter Learning
-- 8.5 Application Results
-- 8.5.1 Thirty-Nine-Bus Test System
-- 8.5.2 A Real-Time Laboratory Experiment
-- 8.6 Summary
-- References
-- 9 Fuzzy Logic and AGC Systems
-- 9.1 Study Systems
-- 7.1.1 Two Control Areas with Subareas
-- 9.1.2 Thirty-Nine-Bus Power System
-- 9.2 Polar-Information-Based Fuzzy Logic AGC
-- 9.2.1 Polar-Information-Based Fuzzy Logic Control
-- 9.2.2 Simulation Results
-- 9.2.2.1 Trunk Line Power Control
-- 9.2.2.2 Control of Regulation Margin
-- 9.3 PSO-Based Fuzzy Logic AGC
-- 9.3.1 Particle Swarm Optimization
-- 9.3.2 AGC Design Methodology
-- 9.3.3 PSO Algorithm for Setting of Membership Functions
-- 9.3.4 Application Results
-- 9.4 Summary
-- References
-- 10 Frequency Regulation Using Energy Capacitor System
-- 10.1 Fundamentals of the Proposed Control Scheme
-- 10.1.1 Restriction of Control Action (Type I)
-- 10.1.2 Restriction of Control Action (Type II)
-- 10.1.3 Prevention of Excessive Control Action (Type III)
-- 10.2 Study System
-- 10.3 Simulation Results
-- 10.4 Evaluation of Frequency Regulation Performance
-- 10.5 Summary
-- References
-- 11 Application of Genetic Algorithm in AGC Synthesis
-- 11.1 Genetic Algorithm: An Overview
-- 11.1.1 GA Mechanism
-- 11.1.2 GA in Control Systems
-- 11.2 Optimal Tuning of Conventional Controllers
-- 11.3 Multiobjective GA
-- 11.3.1 Multiobjective Optimization
-- 11.3.2 Application to AGC Design
-- 11.4 GA for Tracking Robust Performance Index
-- 11.4.1 Mixed H2/H∞
-- 11.4.2 Mixed H2/H∞ SOF Design
-- 11.4.3 AGC Synthesis Using GA-Based Robust Performance Tracking
-- 11.5 GA in Learning Process
-- 11.5.1 GA for Finding Training Data in a BN-Based AGC Design
-- 11.5.2 Application Example
-- 11.6 Summary
-- References
-- 12 Frequency Regulation in Isolated Systems with Dispersed Power Sources
-- 12.1 Configuration of Multiagent-Based AGC System
-- 12.1.1 Conventional AGC on Diesel Unit
-- 12.1.2 Coordinated AGC on the ECS and Diesel Unit
-- 12.2 Configuration of Laboratory System
-- 12.3 Experimental Results
-- 12.4 Summary
-- References
-- Index
650 #0 - SUBJECT ADDED ENTRY--TOPICAL TERM
Topical term or geographic name as entry element Electric power systems
General subdivision Automation
Topical term or geographic name as entry element Intelligent control systems
700 1# - ADDED ENTRY--PERSONAL NAME
Personal name Hiyama, Takashi
900 ## - EQUIVALENCE OR CROSS-REFERENCE-PERSONAL NAME [LOCAL, CANADA]
Personal Name 33119
Numeration satın
942 ## - ADDED ENTRY ELEMENTS (KOHA)
Source of classification or shelving scheme Library of Congress Classification
Koha item type Kitap
Mevcut
Withdrawn status Lost status Damaged status Not for loan Collection code Home library Current library Shelving location Date acquired Cost, normal purchase price Full call number Barcode Date last seen Price effective from Koha item type
        Non-fiction Mehmet Akif Ersoy Merkez Kütüphanesi Mehmet Akif Ersoy Merkez Kütüphanesi Genel Koleksiyon 20/06/2012 225.83 TK1005 .B48 2011 033119 22/12/2015 11/01/2015 Kitap
Bizi Sosyal Medyada Takip Edin