Electrical engineers reference book 16th Edition by Laughton CEng, Warne – Ebook PDF Instant Download/Delivery. 0750646373, 9780750646376
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ISBN 10: 0750646373
ISBN 13: 9780750646376
Author: M. A. Laughton CEng, D. F. Warne
For ease of use, this edition has been divided into the following subject sections: general principles; materials and processes; control, power electronics and drives; environment; power generation; transmission and distribution; power systems; sectors of electricity use.
New chapters and major revisions include: industrial instrumentation; digital control systems; programmable controllers; electronic power conversion; environmental control; hazardous area technology; electromagnetic compatibility; alternative energy sources; alternating current generators; electromagnetic transients; power system planning; reactive power plant and FACTS controllers; electricity economics and trading; power quality.
*An essential source of techniques, data and principles for all practising electrical engineers
*Written by an international team of experts from engineering companies and universities
*Includes a major new section on control systems, PLCs and microprocessors
Electrical engineers reference book 16th Table of contents:
Section A: General Principles
Chapter 1. Units, Mathematics and Physical Quantities
1.1 International unit system
1.2 Mathematics
1.3 Physical quantities
1.4 Physical properties
1.5 Electricity
Chapter 2. Electrotechnoloy
2.1 Nomenclature
2.2 Thermal effects
2.3 Electrochemical effects
2.4 Magnetic field effects
2.5 Electric field effects
2.6 Electromagnetic field effects
2.7 Electrical discharges
Chapter 3. Network Analysis
3.1 Introduction
3.2 Basic network analysis
3.3 Power-system network analysis
Section B: Materials & Processes
Chapter 4. Fundamental Properties of Materials
4.1 Introduction
4.2 Mechanical properties
4.3 Thermal properties
4.4 Electrically conducting materials
4.5 Magnetic materials
4.6 Dielectric materials
4.7 Optical materials
4.8 The plasma state
Chapter 5. Conductors Superconductors
5.1 Conducting materials
5.2 Superconductors
Chapter 6. Semiconductor ,Thick and Thin-Film Microcircuits
6.1 Silicon, silicon dioxide, thick- and thin-film technology
6.2 Thick- and thin-film microcircuits
Chapter 7. Insulation
7.1 Insulating materials
7.2 Properties and testing
7.3 Gaseous dielectrics
7.4 Liquid dielectrics
7.5 Semi-fluid and fusible materials
7.6 Varnishes, enamels, paints and lacquers
7.7 Solid dielectrics
7.8 Composite solid/liquid dielectrics
7.9 Irradiation effects
7.10 Fundamentals of dielectric theory
7.11 Polymeric insulation for high voltage outdoor applications
Chapter 8. Magnetic Materials
8.1 Ferromagnetics
8.2 Electrical steels including silicon steels
8.3 Soft irons and relay steels
8.4 Ferrites
8.5 Nickel–iron alloys
8.6 Iron–cobalt alloys
8.7 Permanent magnet materials
Chapter 9. Electroheat and Materials Processing
9.1 Introduction
9.2 Direct resistance heating
9.3 Indirect resistance heating
9.4 Electric ovens and furnaces
9.5 Induction heating
9.6 Metal melting
9.7 Dielectric heating
9.8 Ultraviolet processes
9.9 Plasma torches
9.10 Semiconductor plasma processing
9.11 Lasers
Chapter 10. Welding and Soldering
10.1 Arc welding
10.2 Resistance welding
10.3 Fuses
10.4 Contacts
10.5 Special alloys
10.6 Solders
10.7 Rare and precious metals
10.8 Temperature-sensitive bimetals
10.9 Nuclear-reactor materials
10.10 Amorphous materials
Section C: Control
Chapter 11. Electrical Measurement
11.1 Introduction
11.2 Terminology
11.3 The role of measurement traceability in product quality
11.4 National and international measurement standards
11.5 Direct-acting analogue measuring instruments
11.6 Integrating (energy) metering
11.7 Electronic instrumentation
11.8 Oscilloscopes
11.9 Potentiometers and bridges
11.10 Measuring and protection transformers
11.11 Magnetic measurements
11.12 Transducers
11.13 Data recording
Chapter 12. Industrial Instrumentation
12.1 Introduction
12.2 Temperature
12.3 Flow
12.4 Pressure
12.5 Level transducers
12.6 Position transducers
12.7 Velocity and acceleration
12.8 Strain gauges, Ioadcells and weighing
12.9 Fieldbus systems
12.10 Installation notes
Chapter 13. Control Systems
13.1 Introduction
13.2 Laplace transforms and the transfer function
13.3 Block diagrams
13.4 Feedback
13.5 Generally desirable and acceptable behaviour
13.6 Stability
13.7 Classification of system and static accuracy
13.8 Transient behaviour
13.9 Root-locus method
13.10 Frequency-response methods
13.11 State-space description
13.12 Sampled-data systems
13.13 Some necessary mathematical preliminaries
13.14 Sampler and zero-order hold
13.15 Block diagrams
13.16 Closed-loop systems
13.17 Stability
13.18 Example
13.19 Dead-beat response
13.20 Simulation
13.21 Multivariable control
13.22 Dealing with non-linear elements
13.23 Disturbances
13.24 Ratio control
13.25 Transit delays
13.26 Stability
13.27 Industrial controllers
13.28 Digital control algorithms
13.29 Auto-tuners
13.30 Practical tuning methods
Chapter 14. Digital Control Systems
14.1 Introduction
14.2 Logic families
14.3 Combinational logic
14.4 Storage
14.5 Timers and monostables
14.6 Arithmetic circuits
14.7 Counters and shift registers
14.8 Sequencing and event driven logic
14.9 Analog interfacing
14.10 Practical considerations
14.11 Data sheet notations
Chapter 15. Microprocessors
15.1 Introduction
15.2 Structured design of programmable logic systems
15.3 Microprogrammable systems
15.4 Programmable systems
15.5 Processor instruction sets
15.6 Program structures
15.7 Reduced instruction set computers (RISC)
15.8 Software design
15.9 Embedded systems
Chapter 16. Programmable Controllers
16.1 Introduction
16.2 The programmable controller
16.3 Programming methods
16.4 Numerics
16.5 Distributed systems and fieldbus
16.6 Graphics
16.7 Software engineering
16.8 Safety
Section D: Power Electronics and Drives
Chapter 17. Power Semiconductor Devices
17.1 Junction diodes
17.2 Bipolar power transistors and Darlingtons
17.3 Thyristors
17.4 Schottky barrier diodes
17.5 MOSFET
17.6 The insulated gate bipolar transistor (IGBT)
Chapter 18. Electronic Power Conversion
18.1 Electronic power conversion principles
18.2 Switch-mode power supplies
18.3 D.c./a.c. conversion
18.4 A.c./d.c. conversion
18.5 A.c./a.c. conversion
18.6 Resonant techniques
18.7 Modular systems
18.8 Further reading
Chapter 19. Electrical Machine Drives
19.1 Introduction
19.2 Fundamental control requirements for electrical machines
19.3 Drive power circuits
19.4 Drive control
19.5 Applications and drive selection
19.6 Electromagnetic compatibility
Chapter 20. Motors and Actuators
20.1 Energy conversion
20.2 Electromagnetic devices
20.3 Industrial rotary and linear motors
Section E: Environment
Chapter 21. Lighting
21.1 Light and vision
21.2 Quantities and units
21.3 Photometric concepts
21.4 Lighting design technology
21.5 Lamps
21.6 Lighting design
21.7 Design techniques
21.8 Lighting applications
Chapter 22. Environmental Control
22.1 Introduction
22.2 Environmental comfort
22.3 Energy requirements
22.4 Heating and warm-air systems
22.5 Control
22.6 Energy conservation
22.7 Interfaces and associated data
Chapter 23. Electromagnetic Compatibility
23.1 Introduction
23.2 Common terms
23.3 The EMC model
23.4 EMC requirements
23.5 Product design
23.6 Device selection
23.7 Printed circuit boards
23.8 Interfaces
23.9 Power supplies and power-line filters
23.10 Signal line filters
23.11 Enclosure design
23.12 Interface cable connections
23.13 Golden rules for effective design for EMC
23.14 System design
23.15 Buildings
23.16 Conformity assessment
23.17 EMC testing and measurements
23.18 Management plans
Chapter 24. Health and Safety
24.1 The scope of electrical safety considerations
24.2 The nature of electrical injuries
24.3 Failure of electrical equipment
Chapter 25. Hazardous Area Technology
25.1 A brief UK history
25.2 General certification requirements
25.3 Gas group and temperature class
25.4 Explosion protection concepts
25.5 ATEX certification
25.6 Global view
25.7 Useful websites
Section F: Power Generation
Chapter 26. Prime Movers
26.1 Steam generating plant
26.2 Steam turbine plant
26.3 Gas turbine plant
26.4 Hydroelectric plant
26.5 Diesel-engine plant
Chapter 27. Alternative Energy Sources
27.1 Introduction
27.2 Solar
27.3 Marine energy
27.4 Hydro
27.5 Wind
27.6 Geothermal energy
27.7 Biofuels
27.8 Direct conversion
27.9 Fuel cells
27.10 Heat pumps
Chapter 28. Alternating Current Generators
28.1 Introduction
28.2 Airgap flux and open-circuit e.m.f.
28.3 Alternating current windings
28.4 Coils and insulation
28.5 Temperature rise
28.6 Output equation
28.7 Armature reaction
28.8 Reactances and time constants
28.9 Steady-state operation
28.10 Synchronising
28.11 Operating charts
28.12 On-load excitation
28.13 Sudden three-phase short circuit
28.14 Excitation systems
28.15 Turbogenerators
28.16 Generator–transformer connection
28.17 Hydrogenerators
28.18 Salient-pole generators other than hydrogenerators
28.19 Synchronous compensators
28.20 Induction generators
28.21 Standards
Chapter 29. Batteries
29.1 Introduction
29.2 Cells and batteries
29.3 Primary cells
29.4 Secondary cells and batteries
29.5 Battery applications
29.6 Anodising
29.7 Electrodeposition
29.8 Hydrogen and oxygen electrolysis
Section G: Transmission and Distribution
Chapter 30. Overhead Lines
30.1 General
30.2 Conductors and earth wires
30.3 Conductor fittings
30.4 Electrical characteristics
30.5 Insulators
30.6 Supports
30.7 Lightning
30.8 Loadings
Chapter 31. Cables
31.1 Introduction
31.2 Cable components
31.3 General wiring cables and flexible cords
31.4 Supply distribution cables
31.5 Transmission cables
31.6 Current-carrying capacity
31.7 Jointing and accessories
31.8 Cable fault location
Chapter 32. HVDC
32.1 Introduction
32.2 Applications of HVDC
32.3 Principles of HVDC converters
32.4 Transmission arrangements
32.5 Converter station design
32.6 Insulation co-ordination of HVDC converter stations
32.7 HVDC thyristor valves
32.8 Design of harmonic filters for HVDC converters
32.9 Reactive power considerations
32.10 Control of HVDC
32.11 A.c. system damping controls
32.12 Interaction between a.c. and d.c. systems
32.13 Multiterminal HVDC systems
32.14 Future trends
Chapter 33. Power Transformers
33.1 Introduction
33.2 Magnetic circuit
33.3 Windings and insulation
33.4 Connections
33.5 Three-winding transformers
33.6 Quadrature booster transformers
33.7 On-load tap changing
33.8 Cooling
33.9 Fittings
33.10 Parallel operation
33.11 Auto-transformers
33.12 Special types
33.13 Testing
33.14 Maintenance
33.15 Surge protection
33.16 Purchasing specifications
Chapter 34. Switchgear
34.1 Circuit-switching devices
34.2 Materials
34.3 Primary-circuit-protection devices
34.4 LV switchgear
34.5 HV secondary distribution switchgear
34.6 HV primary distribution switchgear
34.7 HV transmission switchgear
34.8 Generator switchgear
34.9 Switching conditions
34.10 Switchgear testing
34.11 Diagnostic monitoring
34.12 Electromagnetic compatibility
34.13 Future developments
Chapter 35. Protection
35.1 Overcurrent and earth leakage protection A
35.2 Application of protective systems
35.3 Testing and commissioning
35.4 Overvoltage protection
Chapter 36. Electromagnetic Transients
36.1 Introduction
36.2 Basic concepts of transient analysis
36.3 Protection of system and equipment against transient overvoltage
36.4 Power system simulators
36.5 Waveforms associated with the electromagnetic transient phenomena
Chapter 37. Optical Fibres in Power Systems
37.1 Introduction
37.2 Optical fibre fundamentals
37.3 Optical fibre cables
37.4 British and International Standards
37.5 Optical fibre telemetry on overhead power lines
37.6 Power equipment monitoring with optical fibre sensors
Chapter 38. Installation
38.1 Layout
38.2 Regulations and specifications
38.3 High-voltage supplies
38.4 Fault currents
38.5 Substations
38.6 Wiring systems
38.7 Lighting and small power
38.8 Floor trunking
38.9 Stand-by and emergency supplies
38.10 Special buildings
38.11 Low-voltage switchgear and protection
38.12 Transformers
38.13 Power-factor correction
38.14 Earthing
38.15 Inspection and testing
Section H: Power Systems
Chapter 39. Power System Planning
39.1 The changing electricity supply industry (ESI)
39.2 Nature of an electrical power system
39.3 Types of generating plant and characteristics
39.4 Security and reliability of a power system
39.5 Revenue collection
39.6 Environmental sustainable planning
Chapter 40. Power System Operation and Control
40.1 Introduction
40.2 Objectives and requirements
40.3 System description
40.4 Data acquisition and telemetering
40.5 Decentralised control: excitation systems and control characteristics of synchronous machines
40.6 Decentralised control: electronic turbine controllers
40.7 Decentralised control: substation automation
40.8 Decentralised control: pulse controllers for voltage control with tap-changing transformers
40.9 Centralised control
40.10 System operation
40.11 System control in liberalised electricity markets
40.12 Distribution automation and demand side management
40.13 Reliability considerations for system control
Chapter 41. Reactive Power Plant and FACTS Controllers
41.1 Introduction
41.2 Basic concepts
41.3 Variations of voltage with load
41.4 The management of vars
41.5 The development of FACTS controllers
41.6 Shunt compensation
41.7 Series compensation
41.8 Controllers with shunt and series components
41.9 Special aspects of var compensation
41.10 Future prospects
Chapter 42. Electricity Economics and Tradtng
42.1 Introduction
42.2 Summary of electricity pricing principles
42.3 Electricity markets
42.4 Market models
42.5 Reactive market
Chapter 43. Power Quality
43.1 Introduction
43.2 Definition of power quality terms
43.3 Sources of problems
43.4 Effects of power quality problems
43.5 Measuring power quality
43.6 Amelioration of power quality problems
43.7 Power quality codes and standards
Section I: Sectors of Electricity Use
Chapter 44. Road Transport
44.1 Electrical equipment of road transport vehicles
44.2 Light rail transit
44.3 Battery vehicles
44.4 Road traffic control and information systems
Chapter 45. Railways
45.1 Railway electrification
45.2 Diesel-electric traction
45.3 Systems, EMC and standards
45.4 Railway signalling and control
Chapter 46. Ships
46.1 Introduction
46.2 Regulations
46.3 Conditions of service
46.4 D.c. installations
46.5 A.c. installations
46.6 Earthing
46.7 Machines and transformers
46.8 Switchgear
46.9 Cables
46.10 Emergency power
46.11 Steering gear
46.12 Refrigerated cargo spaces
46.13 Lighting
46.14 Heating
46.15 Watertight doors
46.16 Ventilating fans
46.17 Radio interference and electromagnetic compatibility
46.18 Deck auxiliaries
46.19 Remote and automatic control systems
46.20 Tankers
46.21 Steam plant
46.22 Generators
46.23 Diesel engines
46.24 Electric propulsion
Chapter 47. Aircraft
47.1 Introduction
47.2 Engine technology
47.3 Wing technology
47.4 Integrated active controls
47.5 Flight-control systems
47.6 Systems technology
47.7 Hydraulic systems
47.8 Air-frame mounted accessory drives
47.9 Electrohydraulic flight controls
47.10 Electromechanical flight controls
47.11 Aircraft electric power
47.12 Summary of power systems
47.13 Environmental control system
47.14 Digital power/digital load management
Chapter 48. Mining Applications
48.1 General
48.2 Power supplies
48.3 Winders
48.4 Underground transport
48.5 Coal-face layout
48.6 Power loaders
48.7 Heading machines
48.8 Flameproof and intrinsically safe equipment
48.9 Gate-end boxes
48.10 Flameproof motors
48.11 Cables, couplers, plugs and sockets
48.12 Drilling machines
48.13 Underground lighting
48.14 Monitoring and control
Chapter 49. Standards and Certification
49.1 Introduction
49.2 Organisations preparing electrical standards
49.3 The structure and application of standards
49.4 Testing, certification and approval to standard recommendations
49.5 Sources of standards information
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