000			03853nam a2200301 i 4500
008			110614s2000 nyua b 001 0 eng d
020			_z0824702336 _qalk. paper
040			_aBAUN _beng _cBAUN _erda
049			_aBAUN_MERKEZ
050	0	4	_aTK1010 _b.M65 2000
100	1		_aMomoh, James A., _d1950-
245	1	0	_aElectric systems, dynamics, and stability with artificial intelligence applications _cJames A. Momoh, Mohamed E. El-Hawary.
264		1	_aNew York : _bM. Dekker, _cc2000.
300			_axi, 356 pages : _billustrations ; _c24 cm.
336			_atext _btxt _2rdacontent
337			_aunmediated _bn _2rdamedia
338			_avolume _bnc _2rdacarrier
490	1		_aPower engineering ; _v8
504			_aIncludes bibliographical references (pages 332-349) and index
505	0	0	_tContents _t Series Introduction _r/ H. Lee Willis _t Preface _t1 Introduction _t2 Static Electric Network Models _t 2.1 Complex Power Concepts _t 2.2 Three-Phase Systems _t 2.3 Synchronous Machine Modeling _t 2.4 Reactive Capability Limits _t 2.5 Static Load Models _t3 Dynamic Electric Network Models _t 3.1 Excitation System Model _t 3.2 Prime Mover and Governing System Models _t 3.3 Modeling of Loads _t4 Philosophy of Security Assessment _t 4.1 The Swing Equation _t 4.2 Some Alternative Forms _t 4.3 Transient and Subtransient Reactances _t 4.4 Synchronous Machine Model in Stability Analysis _t 4.5 Subtransient Equations _t 4.6 Machine Models _t 4.7 Groups of Machines and the Infinite Bus _t 4.8 Stability Assessment _t 4.9 Concepts in Transient Stability _t 4.10 A Method for Stability Assessment _t 4.11 Mathematical Models and Solution Methods in Transient Stability Assessment for General Networks _t 4.12 Integration Techniques _t 4.13 The Transient Stability Algorithm _t5 Assessing Angle Stability via Transient Energy Function _t 5.1 Stability Concepts _t 5.2 System Model Description _t 5.3 Stability of a Single-Machine System _t 5.4 Stability Assessment for n-Generator System by the TEF Method _t 5.5 Application to a Practical Power System _t 5.6 Boundary of the Region of Stability _t6 Voltage Stability Assessment _t 6.1 Working Definition of Voltage Collapse Study Terms _t 6.2 Typical Scenario of Voltage Collapse _t 6.3 Time-Frame Voltage Stability _t 6.4 Modeling for Voltage Stability Studies _t 6.5 Voltage Collapse Prediction Methods _t 6.6 Classification of Voltage Stability Problems _t 6.7 Voltage Stability Assessment Techniques _t 6.8 Analysis Techniques for Steady-State Voltage Stability Studies _t 6.9 Parameterization _t 6.10 The Technique of Modal Analysis _t 6.11 Analysis Techniques for Dynamic Voltage Stability Studies _t7 Technology of Intelligent Systems _t 7.1 Fuzzy Logic and Decision Trees _t 7.2 Artificial Neural Networks _t 7.3 Robust Artificial Neural Network _t 7.4 Expert Systems _t 7.5 Fuzzy Sets and Systems _t 7.6 Expert Reasoning and Approximate Reasoning _t8 Application of Artificial Intelligence to Angle Stability Studies _t 8.1 ANN Application in Transient Stability Assessment _t 8.2 A Knowledge-Based System for Direct Stability Analysis _t9 Application of Artificial Intelligence to Voltage Stability Assessment and Enhancement to Electrical Power Systems _t 9.1 ANN-Based Voltage Stability Assessment _t 9.2 ANN-Based Voltage Stability Enhancement _t 9.3 A Knowledge-Based Support System for Voltage Collapse Detection and Prevention _t 9.4 Implementation for KBVCDP _t 9.5 Utility Environment Application _t10 Epilogue and Conclusions _t Glossary _t Appendix: Chapter Problems _t Bibliography _t Index
650		0	_aElectric power system stability _xMathematical models.
650		0	_aArtificial intelligence.
650		0	_aElectric power systems _xAutomatic control _xData processing.
700	1		_aEl-Hawary, M. E.
830		0	_983058 _aPower engineering ; _v8.
900			_a30902
942			_2lcc _cKT
999			_c27870 _d27870