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IEEE 739 1996

$83.96

IEEE Recommended Practice for Energy Management in Industrial and Commercial Facilities

Published By Publication Date Number of Pages
IEEE 1996 319
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New IEEE Standard – Active. This recommended practice serves as an engineering guide for use in electrical design for energy conservation. It provides a standard design practice to assist engineers in evaluating electrical options from an energy standpoint. It establishes engineering techniques and procedures to allow efficiency optimization in the design and operation of an electrical system considering all aspects (safety, costs, environment, those occupying the facility, management needs, etc.).

PDF Catalog

PDF Pages PDF Title
1 Title page
5 Introduction
6 Participants
8 CONTENTS
11 Chapter 1 Overview
1.1 Scope
1.2 General discussion
12 1.3 Management
1.4 Fuel cost effects on electrical energy
14 1.5 Periodicals
15 1.6 Standards and Recommended Practices
16 1.7 Industry Applications Society (IAS)
1.8 IEEE publications
17 1.9 Governmental regulatory agencies
1.10 Keeping informed
18 1.11 Professional activities
1.12 Coordination with other disciplines
19 1.13 Text organization
20 Chapter 2 Organizing for energy management
2.1 Introduction
21 2.2 Organizing the program
22 2.3 Surveying energy uses and losses
24 2.4 The six equipment audit categories
28 2.5 Energy conservation opportunities
29 2.6 Energy monitoring and forecasting
39 2.7 Employee participation
40 2.8 Summary
2.9 Bibliography
42 Chapter 3 Translating energy into cost
3.1 Introduction
3.2 Important concepts in an economic analysis
43 3.3 Economic modelsā€”their applications and limitations
44 3.4 Time value of money
53 3.5 Utility rate structures
56 3.6 Calculating the cost of electricity
62 3.7 Loss evaluation
68 3.8 Bibliography
69 Chapter 4 Load management
4.1 Definition of load management
4.2 Demand control techniques
73 4.3 Utility monitoring and control system
74 4.4 HVAC and energy management
79 4.5 Economic justification for load management systems
4.6 Bibliography
81 Chapter 5 Energy management for motors, systems, and electrical equipment
5.1 Overview
82 5.2 Systems and equipment
117 5.3 Electric motors
156 5.4 Transformers and reactors
165 5.5 Capacitors and synchronous machines
183 5.6 References
184 5.7 Bibliography
197 Annex 5A Manufacturing end-use applications of electricity by category and sector, 1990 (billion kWh)
198 Annex 5B Steam generator system description
199 Annex 5C Compressed air systems worksheet (SEC of Victoria [B196])
203 Annex 5D Refrigeration system description
204 Annex 5E Alternating-current single-phase small (fractional-horsepower) motors rated 1/20-1 hp, 250 V or less
206 Annex 5F Typical characteristics and applications of fixed-frequency medium ac polyphase squirrel-cage ind…
207 Annex 5G Example of a 300 hp induction motor adjustable frequency drive: Efficiency vs. frequency
208 Annex 5H Example of a 300 hp induction motor adjustable frequency drive: Kilowatts vs. frequency
209 Annex 5I Typical range of efficiencies for dry-type transformers: 25ā€“100% load
210 Chapter 6 Metering for energy management
6.1 Background
6.2 Relationships between parameters in an electric power system survey
211 6.3 Units of measure
6.4 Typical cost factors
213 6.5 Six reasons to meter
214 6.6 The importance of audits
218 6.7 Utility meters
222 6.8 Timing of meter disc for kilowatt measurement
223 6.9 Demand meters
226 6.10 Paralleling of current transformers
6.11 Instrument transformer burdens
6.12 Multitasking solid-state meters
227 6.13 Metering location vs. requirements
228 6.14 Metering techniques and practical examples
231 6.15 Motor power
6.16 Motor surveys
234 6.17 Performing a motor survey
242 6.18 Summary
6.19 Bibliography
244 Chapter 7 Energy management for lighting systems
7.1 Introduction
7.2 Definitions of basic lighting terms
245 7.3 Concept of lighting systems
7.4 The task and the working space
248 7.5 Light sources
255 7.6 Ballasts
265 7.7 Luminaires
268 7.8 Lighting controls
270 7.9 Optimizing lighting energy
273 7.10 Power factor and effect of harmonics on power quality
274 7.11 Interaction of lighting with other building subsystems
275 7.12 Cost analysis techniques
277 7.13 Lighting and energy standards
280 7.14 Bibliography
282 Chapter 8 Cogeneration
8.1 Introduction
8.2 Forms of cogeneration
288 8.3 Determining the feasibility of cogeneration
292 8.4 Electrical interconnection
296 8.5 References
297 8.6 Bibliography
298 Index
IEEE 739 1996
$83.96