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Power Quality Primer

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ISBN-10: 0071344160

ISBN-13: 9780071344166

Edition: 2001

Authors: Barry W. Kennedy

List price: $75.00
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Description:

This text provides power engineers with an overview of electrical power generation and transmission with particular attention placed on those apsects of the process that will be susceptible to quality improvement initiatives.
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Book details

List price: $75.00
Copyright year: 2001
Publisher: McGraw-Hill Professional Publishing
Publication date: 9/26/2000
Binding: Hardcover
Pages: 360
Size: 6.25" wide x 9.25" long x 1.25" tall
Weight: 1.694
Language: English

Forewordp. xiii
Prefacep. xv
Introductionp. 1
Power Quality Definitionp. 4
Need for Power Qualityp. 5
Sensitive Loadsp. 7
Nonlinear Loadsp. 10
Interconnected Power Systemsp. 13
Deregulationp. 15
Who's Involved in the Power Quality Industry?p. 17
Research and Development Organizationsp. 18
Standards Organizationsp. 19
Consultantsp. 19
End-User Equipment Manufacturersp. 20
Monitoring-Equipment Manufacturersp. 21
Power Conditioning Equipment Manufacturersp. 22
Utilitiesp. 22
End Usersp. 22
Lawyersp. 23
How Much Does Power Quality Cost?p. 24
How to Use This Bookp. 24
Referencesp. 25
Power Quality Characteristicsp. 27
Power Quality Theoryp. 31
Types of Power Quality Problemsp. 33
Voltage Sags (Dips)p. 34
Voltage Swellsp. 36
Long-Duration Overvoltagesp. 37
Undervoltagesp. 38
Interruptionsp. 39
Transientsp. 40
Voltage Unbalancep. 41
Voltage Fluctuationsp. 42
Harmonicsp. 43
Electrical Noisep. 49
Sources of Power Quality Problemsp. 50
Utility Side of the Meterp. 51
End-User Side of the Meterp. 52
Effects of Power Quality Problemsp. 64
Power Quality Problem-Solving Proceduresp. 65
Power Quality Solutionsp. 65
Summaryp. 65
Referencesp. 65
Power Quality Standardsp. 67
Power Quality Standards Organizationsp. 68
Institute of Electrical and Electronics Engineers (IEEE)p. 68
American National Standards Institute (ANSI)p. 69
International Electrotechnical Commission (IEC)p. 69
Other Domestic Standards Organizationsp. 70
Other International Standards Organizationsp. 71
Purpose of Power Quality Standardsp. 71
Types of Power Quality Standardsp. 73
Voltage Sag (Dip) Standardsp. 75
Transients or Surgesp. 78
Voltage Unbalancep. 80
Voltage Fluctuation or Flicker Standardsp. 82
Harmonic Standardsp. 83
Transformer Overheating Standardsp. 86
Neutral Conductor Loading Standardsp. 88
Static Electricityp. 89
Telephone Power Quality Standardsp. 90
Grounding and Wiring Standardsp. 90
Sensitive Electronic Equipment Standardsp. 90
Trends in Power Quality Standardsp. 92
Referencesp. 94
Power Quality Solutionsp. 97
Reduce Effects on Sensitive Equipmentp. 97
Reduce or Eliminate Causep. 98
Reduce or Eliminate Transfer Mediump. 101
Install Power Conditioning Equipmentp. 102
How Does It Work?p. 104
Surge Suppressorsp. 105
Noise Filtersp. 110
Isolation Transformersp. 112
Line-Voltage Regulatorsp. 115
Motor-Generator Setsp. 119
Magnetic Synthesizersp. 120
Static VAR Compensators (SVCs)p. 121
Uninterruptible Power Supply (UPS)p. 122
Solid-State Switchesp. 128
Harmonic Filtersp. 129
Other Harmonic Solutionsp. 131
Selection of Appropriate Power Conditioning Equipmentp. 132
Grounding and Wiring Solutionsp. 133
Referencesp. 135
Wiring and Groundingp. 137
Wiring Principlesp. 137
Grounding Principlesp. 140
Power Systemp. 141
Utility Power System Groundingp. 141
Telecommunication System Groundingp. 148
End-User Power System Groundingp. 148
Wiring and Grounding Problemsp. 151
Ground Loopsp. 151
Electromagnetic Interference (EMI) Noisep. 153
Loose Connectionsp. 154
Grounding for Lightning and Static Electricityp. 154
Attack of the Triplensp. 155
Solutions That Cause Problemsp. 157
Wiring Solutionsp. 159
Separationp. 159
Selection of Wire and Cablesp. 160
Shieldingp. 162
Grounding Solutionsp. 163
Ground Rodsp. 163
Ground Ringp. 165
Ground and Reference Signal Gridsp. 166
Other Grounding Systemsp. 167
Isolated Groundsp. 167
Multipoint Groundingp. 168
Separately Derived Source Groundingp. 169
Conclusionsp. 170
Referencesp. 170
Power Quality Measurement Toolsp. 173
Kilowatt-Hour Meterp. 175
Multimetersp. 178
Average-responding versus True RMS Metersp. 181
Crest Factor and Bandwidthp. 182
Other Selection Considerationsp. 184
Oscilloscopesp. 185
Disturbance Analyzersp. 187
Harmonic Analyzersp. 189
Power Factor Measurementp. 189
Static Metersp. 190
Electric Field Strength and Magnetic Gaussmetersp. 191
Infrared Detectorsp. 191
Flicker Metersp. 192
Wiring and Grounding Instrumentsp. 194
Receptacle Circuit Testersp. 194
Ground Circuit Impedance Testersp. 195
Earth Ground Testersp. 195
Permanent Power Quality Monitoringp. 196
Need for Power Quality Monitoringp. 197
Evolution of Power Quality Monitoringp. 199
Deregulation's Effect on Power Quality Monitoringp. 199
Power Quality Monitoring Systemp. 201
Monitoring and Analysis to Evaluate Compliancep. 204
Monitoring to Characterize System Performancep. 204
Monitoring to Characterize Specific Problemsp. 204
Monitoring as Part of an Enhanced Power Quality Servicep. 204
Summaryp. 205
Referencesp. 205
Power Quality Surveysp. 207
Purpose of a Power Quality Survey (Checkup or Examination)p. 208
Assess the Power Quality (Health)p. 208
Identify the Power Quality Problem (Symptom)p. 211
Determine the Cause (Disease)p. 211
Analyze the Results of the Survey (Diagnose) to Determine a Solution (Cure)p. 211
Planning a Power Quality Surveyp. 214
Identify the Participants and Performer of the Surveyp. 215
Ask Questionsp. 218
Coordinate the Partiesp. 218
Know Facilitiesp. 219
Survey Formsp. 219
Choosing the Right Power Quality Instrumentsp. 220
Conducting a Power Quality Surveyp. 224
Collect Information at Coordination Meetingp. 224
Conduct On-Site Visual Inspectionp. 227
Set Up Test Instrumentsp. 230
Collect Test Measurementsp. 232
Analyzing Power Quality Survey Resultsp. 232
Input Data into Diagnostic Modelp. 235
Identify Alternative Solutionsp. 235
Preventing Power Quality Problemsp. 236
Referencesp. 237
Power Quality Economicsp. 239
Total Power Quality Improvement Costp. 240
Steps in Performing an Economic Analysisp. 241
Determine Base Power Quality Problem Costp. 243
Value-Based Economic Analysisp. 244
Cost of the Disturbancep. 247
Interruptionsp. 248
Voltage Sagsp. 250
Weighting Factors for Interruptions and Voltage Sagsp. 253
Harmonic Distortionp. 254
Flickerp. 254
Determine Power Quality Improvement Costp. 255
End-User Power Quality Improvementsp. 256
Utility-Side Power Quality Improvementsp. 260
Determine Reduced Power Quality Problem Costp. 260
Interruption and Voltage Sage Reduction Technologiesp. 262
Benefit of Filters to Reduce or Eliminate Harmonicsp. 262
Benefits of Reducing Flickerp. 262
Determine Economic Analysis Method and Assumptionsp. 262
Power Quality Improvement--Purchaser Perspectivep. 265
Life Cyclep. 265
Time Value of Moneyp. 266
Equivalent First Costp. 266
Present Worth Methodp. 266
Benefit-to-Cost Methodp. 267
Perform Economic Analysisp. 268
Uncertaintyp. 268
Sensitivity Analysisp. 268
Computer Programsp. 270
Referencesp. 271
Future Trendsp. 273
United States Electric Utility Deregulationp. 274
United States Electric Power Industryp. 276
1992 Energy Policy Actp. 277
Unbundlingp. 280
Requirements for Power Quality Contractsp. 290
Contracts between TRANSCO and DISTCO or Direct-Service Customerp. 290
Contracts between DISTCO and End Users (or End-User Representative)p. 292
Contracts between RETAILCO or ESCO and End Userp. 293
Enhanced Power Quality Requirements to Improve Productivityp. 293
Contracts between DISTCO and Small IPPp. 294
Deregulation versus Regulationp. 294
Power Quality Standardsp. 295
International Utility Competitionp. 295
Research and Developmentp. 297
Power Quality Parksp. 299
Referencesp. 301
Glossaryp. 303
Bibliographyp. 347
Indexp. 355
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