Electrical technology. Volume I, Electrical fundamentals
Electrical Technology is a textbook that will serve the needs of undergraduate students of engineering. This first volume consists of 30 chapters and introduces the fundamentals of the subject through a discussion on system of units and fundamentals of electrons and gradually moves to advanced topic...
Otros Autores: | |
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Formato: | Libro electrónico |
Idioma: | Inglés |
Publicado: |
[Place of publication not identified]
Pearson
2013
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Edición: | 1st edition |
Colección: | Always learning.
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Materias: | |
Ver en Biblioteca Universitat Ramon Llull: | https://discovery.url.edu/permalink/34CSUC_URL/1im36ta/alma991009629720206719 |
Tabla de Contenidos:
- Cover
- Dedication
- Preface
- Contents
- Part A: Electrical Fundamentals
- 1: Systems of Units
- 1.1 Introduction
- 1.2 Scientific Notation
- 1.3 Fundamental and Derived Units
- 1.3.1 Fundamental Units
- 1.3.2 Derived Units
- 1.4 Standards and Units
- 1.5 Systems of Units
- 1.6 The SI System of Units
- 1.7 Importance of SI System
- 1.8 Definitions
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 2: Electrons in Action
- 2.1 Introduction
- 2.2 Conduction in Solids
- 2.3 Bonding in Atoms
- 2.4 Energy Bands
- 2.5 Electrons in Action
- 2.6 Direction of Current Flow
- 2.7 Diffusion Current Momentarily
- 2.8 Drift Velocity
- 2.9 The Nature of Electric Current
- 2.10 Effects of Electricity
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 3: Electric Circuit
- 3.1 Introduction
- 3.2 Electric Circuit
- 3.3 Current
- 3.4 Electromotive Force
- 3.5 Reference Zero
- 3.6 Safety Precautions While Handling Electric Circuits
- 3.7 Insulators
- 3.8 Semiconductors
- 3.9 Conductors
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 4: Simple d.c. Circuits
- 4.1 Introduction
- 4.2 The Basic Circuit
- 4.3 Resistors
- 4.4 Resistivity (Specific Resistance)
- 4.5 Types of Resistors
- 4.5.1 Fixed Resistors
- 4.5.2 Carbon-composition Resistors
- 4.5.3 Film-type Resistors
- 4.5.4 Wire-wound Resistors
- 4.6 Resistor Tolerance and Wattage
- 4.7 Ohm's Law
- 4.8 Lumped Resistance and Distributed Resistance
- 4.9 Leakage Resistance
- 4.10 Temperature Coefficient of Resistance
- 4.11 Zero Ohm Resistors
- 4.12 Chip Resistors
- 4.13 Resistor Networks
- 4.14 Simulated Resistors
- 4.15 Adjustable Resistors
- 4.16 Variable Resistors
- 4.17 Types of Electric Circuits
- 4.18 Resistances in Series
- 4.19 Voltage Division Formula.
- 4.20 Dominant Resistance
- 4.21 Resistors in Parallel
- 4.22 Current Division Formula
- 4.23 Dominant Resistance
- 4.24 Series-Parallel (Complex) Circuits
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 5: Networks (d.c.)
- 5.1 Introduction
- 5.2 Ohm's Law
- 5.3 Kirchhoff's Laws
- 5.4 Voltage Drop and Polarity
- 5.5 Equipotential Points
- 5.6 The Bridge Network
- 5.7 Networks
- 5.8 Superposition Theorem
- 5.9 Voltage and Current Sources
- 5.10 Dependent Voltage Sources
- 5.11 Millman's Theorem
- 5.12 Thevenin's Theorem
- 5.13 Thevenizing a Circuit
- 5.14 Norton's Theorem
- 5.15 Nortonizing a Circuit
- 5.16 Maximum Power Transfer Theorem
- 5.17 Efficiency
- 5.18 Δ⇆Y Transformation
- 5.19 Balanced Networks
- 5.20 Network Reduction
- 5.21 Mesh Currents
- 5.22 Node-Voltages
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 6: Mesh-Current and Node-Voltage Analysis
- 6.1 Introduction
- 6.2 Matrices and Determinants
- 6.2.1 Matrix Arithmetic
- 6.2.2 Determinants
- 6.2.3 Solution of Simultaneous Equations Using Determinants
- 6.2.4 Gauss Elimination Technique
- 6.3 Network Analysis by Mesh Current
- 6.4 Network Analysis by Node-Pair Voltages
- 6.5 The Resistance Matrix
- 6.6 The Conductance Matrix
- 6.7 The Super Mesh
- 6.8 The Super Node
- 6.9 Nodal Analysis vs Mesh Analysis-A Comparison
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 7: Electrochemical Action
- 7.1 Introduction
- 7.2 Primary Cells
- 7.3 Electrolysis
- 7.3.1 Electrolysis of Water
- 7.4 Faraday's Laws
- 7.4.1 Electroplating
- 7.5 Simple Voltaic Cell
- 7.6 E.M.F. of a Cell
- 7.7 Local Action
- 7.8 Polarization
- 7.9 Internal Resistance
- 7.10 Characteristics of a Good Cell
- 7.11 The Leclanche Cell
- 7.12 The Dry Cell.
- 7.13 Secondary Batteries/Cells
- 7.14 Elements of Secondary Cells
- 7.15 The Electrolyte
- 7.16 Capacity of Cells
- 7.17 Internal Resistance of Secondary Cells
- 7.18 Makeup of Cells
- 7.19 Charging and Discharging of Lead-Acid Secondary Batteries
- 7.20 Constant Current Charging
- 7.21 Constant Voltage Charging
- 7.22 Efficiencies of a Cell
- 7.23 Faults
- 7.24 Alkaline Cells
- 7.25 Nife Nickel Cadmium Alkaline Cell
- 7.26 Mercury Cell
- 7.27 Silver-Oxide Cell
- 7.28 Grouping of Cells
- 7.28.1 Cells in Series
- 7.28.2 Cells in Parallel
- 7.28.3 Cells in Series Parallel
- 7.29 Grouping Cells for Maximum Current
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 8: Electromagnetism
- 8.1 Introduction
- 8.2 Attraction and Repulsion
- 8.3 The Inverse Square Law
- 8.4 Lines of Force
- 8.5 Magnetic Flux
- 8.6 Permeability
- 8.7 Permeability (B-H) Curves
- 8.8 The Domain Theory of Magnetism
- 8.9 Electromagnetism
- 8.10 Direction of Magnetic Field
- 8.11 Magnetizing Force of Electromagnetic Fields
- 8.12 Indicating the Direction of Current Flow
- 8.13 Rule of Direction
- 8.14 Electrodynamic Forces
- 8.15 Forces between Magnet Poles
- 8.16 Magnetic Moment
- 8.16.1 Energy Stored in a Magnetic Field
- 8.17 Flux Density of a Solenoid
- 8.18 Magnetic Circuit
- 8.18.1 Magnetomotive Force
- 8.18.2 Flux Density
- 8.18.3 Reluctance
- 8.18.4 Magnetic Reluctance and Electrical Resistance
- 8.18.5 Comparison of Magnetic Circuit and Electric Circuit
- 8.18.6 Application of Ohm's Law to the Magnetic Circuit
- 8.19 Magnetic Induction
- 8.19.1 Direction of Induced e.m.f.
- 8.19.2 Magnitude of Induced e.m.f.
- 8.20 Magnetic Shields
- 8.21 Reluctance
- 8.22 Series Magnetic Circuits
- 8.23 Parallel Magnetic Circuit
- 8.24 Electromagnets
- 8.24.1 Leakage Flux, Useful Flux.
- 8.24.2 Lifting Power of a Magnet
- 8.25 Electromagnetic Relays
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 9: Inductors
- 9.1 Introduction
- 9.2 Inductance
- 9.2.1 Resistance
- 9.2.2 Inductance
- 9.3 Factors Determining Inductance
- 9.4 Energy Stored in the Magnetic Field of an Inductor
- 9.5 Losses in Inductors
- 9.6 Toroids
- 9.7 Inductor Types
- 9.8 Time-Constant
- 9.9 Graphical Derivation of the Transient Characteristics of an R-L Circuit
- 9.10 Universal Time Constant
- 9.11 Inductors in Series and Parallel
- 9.12 Transient Behaviour
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 10: Hysteresis
- 10.1 Introduction
- 10.2 The B-H Curve
- 10.3 Hysteresis Loop
- 10.4 Hysteresis Loss
- 10.5 Determination of B-H Curve
- 10.5.1 Ballistic Galvanometer Method
- 10.5.2 Flux Metre Method
- 10.6 Determination of Hysteresis Loop
- 10.7 Hysteresis Loss
- 10.8 Eddy Currents
- 10.9 Eddy Current Losses
- 10.10 Separation of Hysteresis and Eddy Current Losses
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 11: Magnetic Materials
- 11.1 Introduction
- 11.2 Magnetic Materials
- 11.3 Non-m agnetic Alloys
- 11.4 Ferrites
- 11.5 Magnetic Materials with Rectangular Hysteresis Loops
- 11.6 Grain-Oriented Magnetic Material
- 11.7 Permanent Magnets
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 12: Electrostatics
- 12.1 Introduction
- 12.2 Electrification by Friction
- 12.3 Application of Electron Theory
- 12.4 Coulomb's Law
- 12.5 Permittivity
- 12.6 Electrostatic Induction
- 12.7 The Gold-Leaf Electroscope
- 12.7.1 Proof Planes
- 12.7.2 Charging By Induction
- 12.7.3 Distribution of Charge
- 12.8 Electric Fields
- 12.9 Electric Flux
- 12.10 Potential
- 12.11 Equipotential Lines.
- 12.12 Gauss's Law
- 12.13 Dielectric Strength
- 12.14 The Electric Field Due to a Line of Charge
- 12.15 The Electric Field Due to a Charged Disk
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 13: Capacitors and d.c. Transients
- 13.1 Introduction
- 13.2 Capacitance
- 13.3 Capacitor Action
- 13.4 Permittivity
- 13.5 Factors Determining Capacitance
- 13.6 Energy Stored in the Electric Field between the Capacitor Plates
- 13.7 Power Factor (Capacitors)
- 13.8 Types of Capacitors
- 13.8.1 Air Capacitors
- 13.8.2 Mica Capacitors
- 13.8.3 Paper C apacitors
- 13.8.4 Polyester Film Capacitors
- 13.8.5 Ceramic Capacitors
- 13.8.6 Electrolytic Capacitors
- 13.8.7 Tantalum Electrolytic Capacitors
- 13.8.8 Variable Capacitors
- 13.9 Capacitor Colourcode
- 13.10. Time Constant
- 13.11 Graphical Derivation of the Transient Characteristics of an R-C Circuit
- 13.12 Universal Time Constant
- 13.13 Connecting Capacitors in Series
- 13.14 Connecting Capacitors in Parallel
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 14: Dielectric Materials
- 14.1 Introduction
- 14.2 Dielectric Materials
- 14.3 Permittivity (Dielectric Constant)
- 14.4 Power Factor
- 14.5 Insulation Resistance (Or Insulance)
- 14.6 Dielectric Absorption
- 14.7 Dielectric Strength
- 14.8 Thermal Effects
- 14.9 Loss Angle
- 14.9.1 Series Representation
- 14.9.2 Parallel Representation
- 14.10 Dielectric Materials (General)
- 14.10.1 Gases
- 14.10.2 Non-metallic Liquids
- 14.10.3 Pure Water
- 14.10.4 Solid Insulating Materials
- 14.10.5 Textiles
- 14.10.6 Paper
- 14.10.7 Natural Minerals
- 14.11 The Dielectric Phenomenon
- 14.12 Dielectric Breakdown
- Summary
- Multiple Choice Questions (MCQ)
- Conventional Questions (CQ)
- 15: Field Theory
- 15.1 Introduction
- 15.2 The Electric Field.
- 15.3 Vectors.