IEEE 739 1984

$28.17

IEEE Recommended Practice for Energy Conservation and Cost-Effective Planning in Industrial Facilities

Published By	Publication Date	Number of Pages
IEEE	1984	161

Guaranteed Safe Checkout

Category: IEEE

If you have any questions, feel free to reach out to our online customer service team by clicking on the bottom right corner. We’re here to assist you 24/7.
Email:[email protected]

Description

New IEEE Standard – Inactive – Superseded. Superseded by IEEE Std 739-1995 This recommended practice serves as an engineering guide for use in electrical design for energy conservation.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
2	Fig 6 Time Value Chart
16	1 Introduction 1.1 General Discussion 1.2 Conservation
17	1.3 Methodology 1.4 Energy Management 1.5 Periodicals
18	1.6 Standards and Recommended Practices
19	1.7 Industry Application Society (IAS)
20	1.8 IEEE Publications 1.9 Governmental Regulatory Agencies
21	1.10 Keeping Informed conditions of service conventional advice on rates energy audits energy conservation services local rules
22	1.11 Professional Activities 1.12 Coordination with Other Disciplines
23	1.13 Textorganization
24	1.14 Fuels
28	2 Organizing for Energy Conservation 2.1 Introduction 2.1.1 Types of Industrial Energy Applications
29	2.1.2 Energy Saving Methods 2.2 Organizing the Program
30	2.3 Surveying Energy Uses and Losses
31	2.3.1 Lighting Walkthrough audit
32	2.3.2 Heating Ventilating and Air Conditioning 2.3.3 Motors and Drives Weatherstrip
33	2.3.4 Processes 2.3.5 Other Electrical Equipment
34	2.3.6 Building Environmental Shell 2.3.7 Overall Considerations 2.3.8 Energy Balance Fig 1 EnergyBalance glaze
35	2.4 Energy Conservation Opportunities
36	2.5 Energy Monitoring and Accounting 2.5.1 Percent Reduction Energy Rate Method Product Energy Rate
37	2.5.2 Design Energy-Savings Report 2.5.3 Activity Method Activity Method Report
38	Enegy-Rate Method Report
39	2.5.4 Energy-Rate Method 2.5.5 Variable Energy-Rate Method Fig 2 Change in Production
40	2.5.6 Tracking Charts 2.6 Employee Participation Fig 3 Energy Production
41	Actual and CMA Energy Rate Versus Production Rate Fig 5 TrackingChart
42	2.7 Summary
43	2.8 Bibliography
44	3 Translating Energy into Cost 3.1 Introduction 3.2 Important Concepts in an Economic Analysis
45	3.3 Time Value of Money 3.3.1 Determining the Cost of Money Calculating the Time Value of Money
48	3.4 Economic Models 3.4.1 Break-Even Analysis
49	Time Value Factors
50	Marginal Cost Analysis 3.4.3 Life Cycle Costing Example of Energy Economics
51	Annual Cost Dispersions Present Values of Annual Costs
52	Utility Rate Structures 3.5.1 An Electric Tariff
53	3.5.2 Rate Structure Elements
55	3.5.3 Proposed Electric Rate Structures
56	Calculating the Cost of Electricity 3.6.1 Block Rate with var Charge Example 3.6.2 Demand Usage Rates Example
57	ScheduleA
58	ScheduleB
59	Riders Block-Rate Example
60	Demand-Rate Example
61	Important Observations on the Electric Bill 3.7 Loss Evaluation 3.7.1 Introduction Dollar Savings from Energy Reduction
62	No-Load (or single value) Loss Evaluation 3.7.3 LoadLossEvaluation Voltage
63	3.7.4 Motor Loss Evaluation with Example
64	3.7.5 Transformer Loss and Example
66	3.7.6 Other Equipment 3.8 Bibliography Motor Losses
68	4 LoadManagement 4.1 Introduction 4.2 Demand Control Techniques 4.3 ManualMethods
69	4.4 Automatic Controllers
70	4.5 Microcomputer System
71	Computerized Energy Management Control System 4.6.1 Energy Distribution 4.6.2 Monitor Energy Consumption 4.6.3 Methods of Conversation 4.6.4 Loadshedding 4.6.5 Cogeneration 4.6.6 Maintenance Prediction
72	(d) Converging Rate Principle (e) Predicted Demand Principle
73	4.7 Economic Justification for Energy Management Systems 4.8 Bibliography
76	Conservation Considerations in Electrical Machines and Equipment 5.1 Induction Motors
77	core-type
78	Effect of Voltage on Motors at Full Load Motor Characteristics at Various Loads
79	Effect of Voltage Imbalance on a 200 hp Motor at Full Load dip flicker imbalance full load (Table reduction technique Wave distortion Welders
80	Total Industrial Electrical Consumption (1972) (billions kWh) AC Polyphase Motors
81	5.2 Synchronous Motors 5.3 Solid-state Devices Open. drip proof 1800 r/min NEMA Design B)
82	Thyristor Drive Characteristics Smoothed DC Load
83	5.4 Transformers 5.5 Reactors Transformer Load Versus Loss of Life distorted voltage waveforms
84	5.6 Capacitors 5.7 Frequency Effects Increase in Harmonics Due to Capacitor Skin Effect on a 300 MCM Conductor
85	5.8 SizeandEnergy 5.9 Voltage Considerations Skin Effects on Large Conductors Voltage considerations direct current reaction current real power diversity thyristor driver
86	5.10 SystemEvaluation corona threshold voltage sine-wave voltage surge arresters surge suppressors
88	Energy Saving Devices 5.12 Bibliography
90	Metering and Measurement Reasons for Metering
91	Typical Form for Recording Electrical Load
92	Typical Industrial Textile Plant Waste treatment chilled water chilled water pumps
93	Portraying Plant Efficiency
94	Subtractive Metering
95	Weekly Consumption Versus Production Compared to Standard
96	Metering Energy Flow Basic Meter Components Voltmeters
97	Data Loggers and Demand Controllers
98	Electrical Reading Log Sheet
100	Wattmeter Connection
101	6.4 Meter Selection Voltage transformer
102	Meter Timing for Kilowatt Measurement Determining Induction Motor Loads Tachometer optical mechanical
103	6.7 Practical Examples Method of Metering Air Flow from a Centrifugal Compressor
104	6.8 Other Considerations
105	Compared to Individual Feeder Loads
108	Energy Conservation in Lighting Systems 7.1 Introduction 7.2 Definitions
109	Method of Presentation
110	Total Lighting System
111	The Task and the Working Space 7.4.1 TaskDescription 7.4.2 TaskIllumination Efficient Room Lighting Task description
112	Light Source Efficacy Recommended Surface Reflectances for Offices Recommended Luminance Ratios Lamp Energy Data (Nominal Data in %) Initial Ratings
113	Light Source Characteristics Lamps and Color Lamp Lumen Efficacies
114	Lamp Output Characteristics
115	Color Characteristics of Light Sources
116	7.5.4 Light Sources 7 54.1 Incandescent 7.5.4.2 Fluorescent Visual comparisons
117	7.5.4.3 High-Intensity Discharge White light
118	7.5.4.4 Low-Pressure Sodium Lamp Start Times
119	7.5.4.5 Economic Considerations 7.6 Ballasts Figures of Merit 7.6.2 Ballast Factor 7.6.3 Fluorescent Ballasts Effect of Temperature and Voltage Variations Wall temperature
120	(a) Typical HID Lamp Ballast Input Watts
121	(b) Typical Fluorescent Lamp Ballast Input Watts
122	Energy Efficient Ballasts-General Concepts 7.6.3.3 Low-Energy Ballasts 7.6.3.4 High/Low Ballasts Relationship of Lumens Versus Ambient Temperature
123	7.6.3.5 Low-Loss Ballasts 7.6.3.6 Electronic Ballasts High-Intensity Discharge Ballasts 7.6.4.1 General Ballasts for High-pressure Sodium Lamps
124	Ballast Regulation Characteristics Energy Efficient Electronic-Controlled Ballast
125	7.6.4.3 Ballast Interchangeability 7.6.5 Ballast Life Trapezoid Diagram for the 400 W HPS Lamp
126	7.7 Luminaries 7.7.1 Efficiency Criteria Glare Control and Utilization
127	7.7.3 Shielding Media Reflected Glare Illustration
128	7.7.4 Dirt Effect and Maintenance Considerations 7.7.5 AirMovement 7.8 Lighting Controls 7.8.1 General 7.8.2 Switching Fluorescent Fixture Distribution Pattern
129	7.8.3 Dimming
130	Remote Control Systems Automatic Control Systems Optimizing Lighting Energy People and the Visual Task
131	Illumination Quantity and Quality 7.9.3 Lighting Hardware 7.9.4 Maintenance Characteristics Space-Mounting Height Ratio
132	7.10 Power Factor Energy Requirements for Four Lighting Systems
133	Interaction of Lighting with Other Building Subsystems 7.11.1 General HVAC Subsystem Interaction Comparative Output of Light Sources
134	7.12 EvaluationTechniques 7.13 Bibliography
135	Annual Cost Work Sheet
138	8 Cogeneration 8.1 Introduction Forms of Cogeneration
139	Plant Topping Cycle Cogeneration Steam System Plant Combined Cycle Cogeneration Steam System
141	Output
142	Determining the Feasibility of Cogeneration Approximations for Determining Cogeneration Feasibility
143	Scale Cost Comparisons
144	8.4 Size Considerations Small Industrial Plant Basic Economic Parameters Unit steam cost Unit fuel cost
145	8.5 Typical Systems Graphic Summary of Typical 1982 Average Cogeneration Steam Costs
146	Cogeneration Fuel-Saving Potential
147	Cogeneration Fuel-Saving Potential (Unit Comparison)
148	8.6 Other Considerations Industrial-Industrial Cogeneration System
149	Steam/kW Cost Effect on Product Energy Cost
150	8.7 Bibliography

Additional information

Standard Title	IEEE Recommended Practice for Energy Conservation and Cost-Effective Planning in Industrial Facilities
Published Code	IEEE
Publication Date	1984
Pages Count	161

Preview PDF


PDF Format	Searchable	Printable	Preview Now

IEEE 739 1984

PDF Catalog

Related products