Basic electric circuit analysis

목차 (Table of Contents)

• CONTENTS
• PREFACE = ⅸ
• 1. INTRODUCTION = 1
• 1.1 Definitions and Units = 2
• 1.2 Charge and Current = 5
• 1.3 Voltage, Energy, and Power = 8
• 1.4 Passive and Active Elements = 12
• 1.5 Circuit Analysis = 15
• 2. RESISTIVE CIRCUITS = 18
• 2.1 Ohm's Low = 19
• 2.2 Kirchhoffs Laws = 24
• 2.3 Series Resistance and Voltage Division = 32
• 2.4 Parallel Resistance and Current Division = 37
• 2.5 Analysis Examples = 43
• 2.6 Ammeters, Voltmeters, and Ohmmeters* = 48
• 2.7 Physical Resistors* = 51
• 3. DEPENDENT SOURCES = 58
• 3.1 Definitions = 59
• 3.2 Circuits with Dependent Sources = 60
• 3.3 operational Amplifiers = 62
• 3.4 Amplifier Circuits = 65
• 4. ANALYSIS METHODS = 76
• 4.1 Nodal Analysis = 77
• 4.2 An Example = 81
• 4.3 Circuits Containing Voltage Sources = 84
• 4.4 circuits Containing Op Amps = 89
• 4.5 Mesh Analysis = 92
• 4.6 circuits Containing Current Sources = 95
• 4.7 Duality* = 99
• 5. NETWORK THEOREMS = 112
• 5.1 Linear Circuits = 113
• 5.2 Superposition = 118
• 5.3 Thevenin's and Norton's Theorems = 124
• 5.4 Practical Sources = 133
• 5.5 Maximum Power Transfer = 139
• 6. INDEPENDENCE OF EQUATIONS* = 147
• 6.1 Graph of a Network = 148
• 6.2 Trees and Links = 150
• 6.3 Independent Voltage Equations = ⅰ52
• 6.4 Independent Current Equations = 155
• 6.5 A Circuit Application = 159
• 7. ENERGY-STORAGE ELEMENTS = 164
• 7.1 Capacitors = 165
• 7.2 Energy Storage in Capacitors = 170
• 7.3 Series and Parallel Capacitors = 172
• 7.4 Inductors = 176
• 7.5 Energy Storage in Inductors = 180
• 7.6 Series and Parallel Inductors = 182
• 7.7 Practical Capacitors and Inductors* = 185
• 7.8 Duality and Linearity = 187
• 7.9 Singular Circuits* = 189
• 8. SIMPLE RC AND RL CIRCUITS = 198
• 8.1 Source-Free RC Circuit = 199
• 8.2 Time Constants = 203
• 8.3 Source-Free RL Circuit = 208
• 8.4 Response to a Constant Forcing Function = 214
• 8.5 The General Case = 218
• 8.6 A Shortcut Procedure = 222
• 8.7 The Unit Step Function = 226
• 8.8 The Step Response = 231
• 8.9 Application of Superposition = 238
• 9. SECOND-ORDER CIRCUITS = 249
• 9.1 Circuits with Two Storage Elements = 250
• 9.2 Second-Order Equations = 253
• 9.3 The Natural Response = 255
• 9.4 Types of Natural Frequencies = 258
• 9.5 The Forced Response = 262
• 9.6 Excitation at a Natural Frequency = 266
• 9.7 The Complete Response = 269
• 9.8 The Parallel RLC Circuit = 274
• 9.9 The Series RLC Circuit = 280
• 9.10 Alternative Methods for Obtaining the Describing Equations* = 285
• 10. SINUSOIDAL EXCITATION AND PHASORS = 298
• 10.1 Properties of Sinusoids = 299
• 10.2 An RL Circuit Example = 304
• 10.3 An Alternative Method Using Complex Numbers = 306
• 10.4 Complex Excitations = 310
• 10.5 Phasors = 314
• 10.6 Voltage-Current Relationships for Phasors = 317
• 10.7 Impedance and Admittance = 323
• 10.8 Kirchhoff'sLawsandlmpedanceCombinations = 327
• 10.9 Phasor Circuits = 331
• 11. AC STEADY-STATE ANALYSIS = 339
• 11.1 Nodal Analysis = 340
• 11.2 Mesh Analysis = 346
• 11.3 Network Theorems = 349
• 11.4 Phosor Diagrams = 356
• 12. AC STEADY-STATE POWER = 369
• 12.1 Average Power = 370
• 12.2 Superposition and Power = 378
• 12.3 RMS Values = 382
• 12.4 Power Factor = 384
• 12.5 Complex Power = 389
• 12.6 Power Measurement = 394
• 13. THREE-PHASE CIRCUITS = 401
• 13.1 Single-Phase, Three-Wire Systems = 402
• 13.2 Three-Phase Y-Y Systems = 408
• 13.3 The Delta Connection = 415
• 13.4 Y-A Transformations = 419
• 13.5 Power Measurement = 424
• 14. COMPLEX FREQUENCY AND NETWORK FUNCTIONS = 432
• 14.1 The Damped Sinusoid = 433
• 14.2 Complex Frequency and Generalized Phosors = 436
• 14.3 Impedance and Admittance = 439
• 14.4 Network Functions = 444
• 14.5 Poles and Zeros = 448
• 14.6 The Natural Response from the Network Function = 450
• 14.7 Natural Frequencies* = 453
• 14.8 Two-Port Networks = 455
• 15. FREQUENCY RESPONSE = 467
• 15.1 Amplitude and Phase Responses = 468
• 15.2 Filters = 471
• 15.3 Resonance = 475
• 15.4 Bandposs Functions and Quality Factor = 478
• 15.5 Use of Pole-Zero Plots = 482
• 15.6 Scaling the Network Function = 485
• 15.7 The Decibel = 488
• 16. TRANSFORMERS = 500
• 16.1 Mutual Inductance = 501
• 16.2 Pnergy Storage = 511
• 16.3 Circuits with Linear Transformers = 514
• 16.4 Reflected impedance = 519
• 16.5 The Ideal Transformer = 521
• 16.6 Equivalent Circuits = 527
• 17. FOURIER METHODS = 535
• 17.1 The Trigonometric Fourier Series = 536
• 17.2 Symmetry Properties = 543
• 17.3 The Exponential Fourier Series = 547
• 17.4 Response to Periodic Excitations = 550
• 17.5 Frequency Spectra = 553
• 17.6 The Fourier Transform = 555
• 17.7 Fourier Transform operations = 559
• 18. LAPLACE TRANSFORMS = 567
• 18.1 Definition = 568
• 18.2 Some Special Results = 571
• 18.3 The inverse Transform = 576
• 18.4 The Impulse Function = 581
• 18.5 Applications to Differential Equations = 584
• 18.6 The Transformed Circuit = 590
• APPENDIX A DETERMINANTS AND CRAMER'S RULE = 599
• APPENDIX B GAUSSIAN ELIMINATION = 604
• APPENDIX C COMPLEX NUMBERS = 608
• APPENDIX D EULER'S FORMULA = 615
• APPENDIX E ANSWERS TO SELECTED ODD-NUMBERED PROBLEMS = 619
• INDEX = 625