Electrical Circuit Theory and Technology John Bird 3Ed 2007

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Electrical Circuit Theory and Technology
John Bird
3rd Edition
2007

Electrical Circuit Theory and Technology John Bird 3Ed 2007.part1.rar (2930 K) 下载次数:23

Electrical Circuit Theory and Technology John Bird 3Ed 2007.part2.rar (2756 K) 下载次数:26

[contents]

Part 1 BasicElectrical Engineering Principles
1 Units Associated with Basic ElectricalQuantities
1.1 SI Units
1.2 Charge
1.3 Force
1.4 Work
1.5 Power
1.6 Electrical Potential and E.M.F.
1.7 Resistance and Conductance
1.8 Electrical Power and Energy
1.9 Summary of Terms, Units and TheirSymbols
2 An Introduction to Electric Circuits
2.1 Standard Symbols for ElectricalComponents
2.2 Electric Current and Quantity ofElectricity
2.3 Potential Difference andResistance
2.4 Basic Electrical MeasuringInstruments
2.5 Linear and Non-Linear Devices
2.6 Ohm’s Law
2.7 Multiples and Sub-Multiples
2.8 Conductors and Insulators
2.9 Electrical Power and Energy
2.10 Main Effects of Electric Current
2.11 Fuses
3 Resistance Variation
3.1 Resistance and Resistivity
3.2 Temperature Coefficient ofResistance
4 Batteries
4.1 Introduction to Batteries
4.2 Some Chemical Effects ofElectricity
4.3 The Simple Cell
4.4 Corrosion
4.5 E.M.F. and Internal Resistance ofa Cell
4.6 Primary Cells
4.7 Secondary Cells
4.8 Cell Capacity
4.9 Safe Disposal of Batteries
4.10 Fuel Cells
4.11 Alternative and Renewable EnergySources
Revision Test 1
5 Series and Parallel Networks
5.1 Series Circuits
5.2 Potential Divider
5.3 Parallel Networks
5.4 Current Division
5.5 Relative and Absolute Voltages
5.6 Wiring Lamps in Series and inParallel
6 Capacitors and Capacitance
6.1 Introduction to Capacitors
6.2 Electrostatic Field
6.3 Electric Field Strength
6.4 Capacitance
6.5 Capacitors
6.6 Electric Flux Density
6.7 Permittivity
6.8 The Parallel Plate Capacitor
6.9 Capacitors Connected in Paralleland Series
6.10 Dielectric Strength
6.11 Energy Stored
6.12 Practical Types of Capacitor
6.13 Discharging Capacitors
7 Magnetic Circuits
7.1 Introduction to Magnetism andMagnetic Circuits
7.2 Magnetic Fields
7.3 Magnetic Flux and Flux Density
7.4 Magnetomotive Force and MagneticField Strength
7.5 Permeability and B–H Curves
7.6 Reluctance
7.7 Composite Series MagneticCircuits
7.8 Comparison Between Electrical andMagnetic Quantities
7.9 Hysteresis and Hysteresis Loss
Revision Test 2
8 Electromagnetism
8.1 Magnetic Field Due to an ElectricCurrent
8.2 Electromagnets
8.3 Force on a Current-CarryingConductor
8.4 Principle of Operation of aSimple D.C. Motor
8.5 Principle of Operation of aMoving Coil Instrument
8.6 Force on a Charge
9 Electromagnetic Induction
9.1 Introduction to ElectromagneticInduction
9.2 Laws of Electromagnetic Induction
9.3 Rotation of a Loop in a MagneticField
9.4 Inductance
9.5 Inductors
9.6 Energy Stored
9.7 Inductance of a Coil
9.8 Mutual Inductance
10 Electrical Measuring Instruments andMeasurements
10.1 Introduction
10.2 Analogue Instruments
10.3 Moving-Iron Instrument
10.4 The Moving-Coil RectifierInstrument
10.5 Comparison of Moving-Coil,Moving-Iron and Moving-Coil Rectifier Instruments
10.6 Shunts and Multipliers
10.7 Electronic Instruments
10.8 The Ohmmeter 84
10.9 Multimeters
10.10 Wattmeters
10.11 Instrument ‘Loading’ Effect
10.12 The Oscilloscope
10.13 Virtual Test and MeasuringInstruments
10.14 Virtual Digital StorageOscilloscopes
10.15 Waveform Harmonics
10.16 Logarithmic Ratios
10.17 Null Method of Measurement
10.18 Wheatstone Bridge
10.19 D.C. Potentiometer
10.20 A.C. Bridges
10.21 Measurement Errors
11 Semiconductor Diodes
11.1 Types of Material
11.2 Semiconductor Materials
11.3 Conduction in SemiconductorMaterials
11.4 The P-N Junction
11.5 forward and Reverse Bias
11.6 Semiconductor Diodes
11.7 Characteristics and MaximumRatings
11.8 Rectification
11.9 Zener Diodes
11.10 Silicon Controlled Rectifiers
11.11 Light Emitting Diodes
11.12 Varactor Diodes
11.13 Schottky Diodes
12 Transistors
12.1 Transistor Classification
12.2 Bipolar Junction Transistors(BJT)
12.3 Transistor Action
12.4 Leakage Current
12.5 Bias and Current Flow
12.6 Transistor OperatingConfigurations
12.7 Bipolar TransistorCharacteristics
12.8 Transistor Parameters, 118
12.9 Current Gain
12.10 Typical BJT Characteristics andMaximum Ratings
12.11 Field Effect Transistors
12.12 Field Effect TransistorCharacteristics
12.13 Typical FET Characteristics andMaximum Ratings
12.14 Transistor Amplifiers
12.15 Load Lines
Revision Test 3
Main formulae for Part 1
Part 2 ElectricalPrinciples and Technology
13 D.C. Circuit Theory
13.1 Introduction
13.2 Kirchhoff’s Laws
13.3 The Superposition Theorem
13.4 General D.C. Circuit Theory
13.5 Thevenin’s Theorem
13.6 Constant-Current Source
13.7 Norton’s Theorem
13.8 Thevenin and Norton EquivalentNetworks
13.9 Maximum Power Transfer Theorem
14 Alternating Voltages and Currents
14.1 Introduction
14.2 The A.C. Generator
14.3 Waveforms
14.4 A.C. Values
14.5 The Equation of a SinusoidalWaveform
14.6 Combination of Waveforms
14.7 Rectification
Revision Test 4
15 Single-Phase Series A.C. Circuits
15.1 Purely Resistive A.C. Circuit
15.2 Purely Inductive A.C. Circuit
15.3 Purely Capacitive A.C. Circuit
15.4 R–L Series A.C. Circuit
15.5 R–C Series A.C. Circuit
15.6 R–L–C Series A.C. Circuit
15.7 Series Resonance
15.8 Q-Factor
15.9 Bandwidth and Selectivity
15.10 Power in A.C. Circuits
15.11 Power Triangle and Power Factor
16 Single-Phase Parallel A.C. Circuits
16.1 Introduction
16.2 R–L Parallel A.C. Circuit
16.3 R–C Parallel A.C. Circuit
16.4 L–C Parallel A.C. Circuit
16.5 LR–C Parallel A.C. Circuit
16.6 Parallel Resonance and Q-Factor
16.7 Power Factor Improvement
17 D.C. Transients
17.1 Introduction
17.2 Charging a Capacitor
17.3 Time Constant for a C–R Circuit
17.4 Transient Curves for a C–RCircuit
17.5 Discharging a Capacitor
17.6 Camera Flash
17.7 Current Growth in an L–R Circuit
17.8 Time Constant for an L–R Circuit
17.9 Transient Curves for an L–RCircuit
17.10 Current Decay in an L–RCircuit, 208
17.11 Switching Inductive Circuits
17.12 The Effect of Time Constant ona Rectangular Waveform
18 Operational Amplifiers
18.1 Introduction to OperationalAmplifiers
18.2 Some Op Amp Parameters
18.3 Op Amp inverting Amplifier
18.4 Op Amp Non-inverting Amplifier
18.5 Op Amp Voltage-Follower
18.6 Op Amp Summing Amplifier
18.7 Op Amp Voltage Comparator
18.8 Op Amp Integrator
18.9 Op Amp Differential Amplifier
18.10 Digital to Analogue (D/A)Conversion
18.11 Analogue to Digital (A/D)Conversion
Revision Test 5
19 Three-Phase Systems
19.1 Introduction
19.2 Three-Phase Supply
19.3 Star Connection
19.4 Delta Connection
19.5 Power in Three-Phase Systems
19.6 Measurement of Power in ThreePhase Systems
19.7 Comparison of Star and DeltaConnections
19.8 Advantages of Three-PhaseSystems
20 Transformers
20.1 Introduction
20.2 Transformer Principle ofOperation
20.3 Transformer No-Load PhasorDiagram
20.4 E.M.F. Equation of a Transformer
20.5 Transformer On-Load PhasorDiagram
20.6 Transformer Construction
20.7 Equivalent Circuit of aTransformer
20.8 Regulation of a Transformer
20.9 Transformer Losses andEfficiency
20.10 Resistance Matching
20.11 Auto Transformers
20.12 Isolating Transformers
20.13 Three-Phase Transformers
20.14 Current Transformers
20.15 Voltage Transformers
Revision Test 6
21 D.C. Machines
21.1 Introduction
21.2 The Action of a Commutator
21.3 D.C. Machine Construction
21.4 Shunt, Series and CompoundWIndings
21.5 E.M.F. Generated in an ArmatureWInding
21.6 D.C. Generators
21.7 Types of D.C. Generator andTheir Characteristics
21.8 D.C. Machine Losses
21.9 Efficiency of a D.C. Generator
21.10 D.C. Motors
21.11 Torque of a D.C. Machine
21.12 Types of D.C. Motor and TheirCharacteristics
21.13 The Efficiency of a D.C. Motor
21.14 D.C. Motor Starter
21.15 Speed Control of D.C. Motors
21.16 Motor Cooling
22 Three-Phase Induction Motors
22.1 Introduction
22.2 Production of a RotatingMagnetic Field
22.3 Synchronous Speed
22.4 Construction of a Three-PhaseInduction Motor
22.5 Principle of Operation of aThree Phase Induction Motor
22.6 Slip
22.7 Rotor E.M.F. and Frequency
22.8 Rotor Impedance and Current
22.9 Rotor Copper Loss
22.10 Induction Motor Losses andEfficiency
22.11 Torque Equation for anInduction Motor
22.12 Induction Motor Torque–SpeedCharacteristics
22.13 Starting Methods for InductionMotors
22.14 Advantages of Squirrel-CageInduction Motors
22.15 Advantages of Wound RotorInduction Motor, 290
22.16 Double Cage Induction Motor
22.17 Uses of Three-Phase InductionMotors
Revision Test 7
Main formulae for Part 2
Part 3 AdvancedCircuit Theory and Technology
23 Revision of Complex Numbers
23.1 Introduction
23.2 Operations involving CartesianComplex Numbers
23.3 Complex Equations
23.4 The Polar form of a ComplexNumber
23.5 Multiplication and DivisionUsing Complex Numbers in Polar form
23.6 De Moivre’s Theorem — Powers andRoots of Complex Numbers
24 Application of Complex Numbers to SeriesA.C. Circuits
24.1 Introduction
24.2 Series A.C. Circuits
24.3 Further Worked Problems onSeries A.C. Circuits
25 Application of Complex Numbers toParallel A.C. Networks
25.1 Introduction
25.2 Admittance Conductance andSusceptance
25.3 Parallel A.C. Networks
25.4 Further Worked Problems onParallel A.C. Networks
26 Power in A.C. Circuits
26.1 Introduction
26.2 Determination of Power in A.C.Circuits
26.3 Power Triangle and Power Factor
26.4 Use of Complex Numbers forDetermination of Power
26.5 Power Factor Improvement
Revision Test 8
27 A.C. Bridges
27.1 Introduction
27.2 Balance Conditions for an A.C.Bridge
27.3 Types of A.C. Bridge Circuit
27.4 Worked Problems on A.C. Bridges
28 Series Resonance and Q-Factor
28.1 Introduction
28.2 Series Resonance
28.3 Q-Factor
28.4 Voltage Magnification
28.5 Q-Factors in Series
28.6 Bandwidth
28.7 Small Deviations From theResonant Frequency
29 Parallel Resonance and Q-Factor
29.1 Introduction
29.2 The LR–C Parallel Network
29.3 Dynamic Resistance
29.4 The LR–CR Parallel Network
29.5 Q-Factor in a Parallel Network
29.6 Further Worked Problems onParallel Resonance and Q-Factor
Revision Test 9
30 Introduction to Network Analysis
30.1 Introduction
30.2 Solution of SimultaneousEquations Using Determinants
30.3 Network Analysis UsingKirchhoff’s Laws
31 Mesh-Current and Nodal Analysis
31.1 Mesh-Current Analysis
31.2 Nodal Analysis
32 The Superposition Theorem
32.1 Introduction
32.2 Using the Superposition Theorem
32.3 Further Worked Problems on theSuperposition Theorem
33 Thévenin’s and Norton’s Theorems
33.1 Introduction
33.2 Thevenin’s Theorem
33.3 Further Worked Problems onThevenin’s Theorem
33.4 Norton’s Theorem
33.5 Thevenin and Norton EquivalentNetworks
Revision Test 10
34 Delta-Star and Star-DeltaTransformations
34.1 Introduction
34.2 Delta and Star Connections
34.3 Delta-Star Transformation
34.4 Star-Delta Transformation
35 Maximum Power Transfer Theorems andImpedance Matching
35.1 Maximum Power Transfer Theorems
35.2 Impedance Matching
Revision Test 11
36 Complex Waveforms
36.1 Introduction
36.2 The General Equation for a ComplexWaveform
36.3 Harmonic Synthesis
36.4 Fourier Series of Periodic andNon-Periodic Functions
36.5 Even and Odd Functions andFourier Series Over Any Range
36.6 Rms Value, Mean Value and theform Factor of a Complex Wave
36.7 Power Associated with ComplexWaves
36.8 Harmonics in Single-PhaseCircuits
36.9 Further Worked Problems onHarmonics in Single-Phase Circuits
36.10 Resonance Due to Harmonics
36.11 Sources of Harmonics
37 A Numerical Method of Harmonic Analysis
37.1 Introduction
37.2 Harmonic Analysis on Data Givenin Tabular Or Graphical form
37.3 Complex Waveform Considerations
38 Magnetic Materials
38.1 Revision of Terms and Units Usedwith Magnetic Circuits
38.2 Magnetic Properties of Materials
38.3 Hysteresis and Hysteresis Loss
38.4 Eddy Current Loss
38.5 Separation of Hysteresis andEddy Current Losses
38.6 Non-Permanent Magnetic Materials
38.7 Permanent Magnetic Materials
Revision Test 12
39 Dielectrics and Dielectric Loss
39.1 Electric Fields, Capacitance andPermittivity
39.2 Polarization
39.3 Dielectric Strength
39.4 Thermal Effects
39.5 Mechanical Properties
39.6 Types of Practical Capacitor
39.7 Liquid Dielectrics and GasInsulation
39.8 Dielectric Loss and Loss Angle
40 Field Theory
40.1 Field Plotting By CurvilinearSquares
40.2 Capacitance Between ConcentricCylInders
40.3 Capacitance of an Isolated TwinLine
40.4 Energy Stored in an ElectricField
40.5 Induced E.M.F. and Inductance
40.6 Inductance of a Concentric CylInder(Or Coaxial Cable)
40.7 Inductance of an Isolated TwinLine
40.8 Energy Stored in anElectromagnetic Field
41 Attenuators
41.1 Introduction
41.2 Characteristic Impedance
41.3 Logarithmic Ratios
41.4 Symmetrical T- and ?-Attenuators
41.5 Insertion Loss
41.6 Asymmetrical T- and ?-Sections
41.7 The L-Section Attenuator
41.8 Two-Port Networks in Cascade
41.9 ABCD Parameters
41.10 ABCD Parameters for Networks
41.11 Characteristic Impedance inTerms of ABCD Parameters
Revision Test 13
42 Filter Networks
42.1 Introduction
42.2 Basic Types of Filter Sections
42.3 The Characteristic Impedance andthe Attenuation of Filter Sections
42. ..

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