IEEE 493 2007
$100.21
IEEE Recommended Practice for the Design of Reliable Industrial and Commercial Power Systems
Published By | Publication Date | Number of Pages |
IEEE | 2007 | 383 |
Revision Standard – Active. The objective of this book is to present the fundamentals of reliability analysis applied to the planning and design of industrial and commercial electric power distribution systems. The intended audience for this material is primarily consulting engineers and plant electrical engineers and technicians. The design of reliable industrial and commercial power distribution systems is important because of the high cost associated with power outages. It is necessary to consider the cost of power outages when making design decisions for new power distribution systems as well as to have the ability to make quantitative cost-versus-reliability trade-off studies. The lack of credible data concerning equipment reliability and the cost of power outages has hindered engineers in making such studies. This edition of the IEEE Std 493 overcomes these obstacles. Remarks: Revision of IEEE Std 493-1997
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 493-2007 |
3 | IEEE Recommended Practice for the Design of Reliable Industrial and Commercial Power Systems |
4 | Abstract/Keywords |
5 | Acknowledgments |
7 | Introduction/Notice to users |
8 | Participants |
11 | Contents |
15 | Chapter 1 Introduction 1.1 Objectives and scope |
16 | 1.2 Summary of contents of each chapter |
19 | 1.3 How to use this book 1.4 Normative references |
21 | Chapter 2 Basic concepts of reliability 2.1 Introduction 2.2 Definitions |
23 | 2.3 Calculation reference |
24 | 2.4 Acronyms and abbreviations |
25 | 2.5 Review of basic probability |
26 | 2.6 Reliability and availability |
29 | 2.7 Defining frequency and duration of outages and interruptions, l, MTBF |
30 | 2.8 Probability distributions |
37 | 2.9 Methods of reliability and availability analysis |
41 | 2.10 Performing reliability and availability analyses |
42 | 2.11 Bibliography |
43 | Chapter 3 Planning and design 3.1 Introduction |
44 | 3.2 Fundamentals of power system reliability evaluation |
46 | 3.3 Examples of reliability and availability analysis of common low- voltage industrial power dis… |
79 | 3.4 Cost of power outages |
92 | 3.5 IEEE Gold Book Standard Network |
99 | 3.6 Normative references 3.7 Biography |
103 | Chapter 4 Evaluating and improving the reliability of an existing electrical system 4.1 Introduction |
104 | 4.2 Evaluation methodology |
105 | 4.3 Utility supply availability |
108 | 4.4 Configuration |
110 | 4.5 Assessing control and protection |
112 | 4.6 Physical assessment |
113 | 4.7 Operations and maintenance |
116 | 4.8 Other vulnerable areas |
117 | 4.9 Conclusion |
118 | 4.10 Normative references 4.11 Bibliography |
119 | Chapter 5 Preventive maintenance 5.1 Introduction 5.2 Relationship of maintenance practice and equipment failure |
121 | 5.3 Equipment preventive maintenance |
123 | 5.4 Design for preventive maintenance |
124 | 5.5 Reliability centered maintenance |
126 | 5.6 Relationship of RCM to other disciplines |
127 | 5.7 RCM implementation plan |
128 | 5.8 Data collection requirements |
131 | 5.9 Bibliography |
133 | Chapter 6 Emergency and standby power 6.1 Introduction |
134 | 6.2 Emergency and standby power supply types |
142 | 6.3 Conclusions 6.4 Normative references |
143 | Chapter 7 Voltage sag analysis 7.1 Introduction |
145 | 7.2 Voltage sag characteristics and reporting |
149 | 7.3 Equipment susceptibility to voltage sags |
152 | 7.4 Line faults—A major cause for voltage sags |
153 | 7.5 Voltage sag predictions |
163 | 7.6 Methods of stochastic prediction of voltage sags |
165 | 7.7 Examples for rectangular sag calculations |
173 | 7.8 Nonrectangular sags |
177 | 7.9 Development of voltage sag coordination charts |
186 | 7.11 Economic costs of voltage sags 7.12 Conclusions and future work |
187 | 7.13 Normative references 7.14 Bibliography |
191 | Chapter 8 7 x 24 continuous power facilities 8.1 Introduction 8.2 Special equipment to support continuous operation |
194 | 8.3 Defining failure in a 7 x 24 facility |
196 | 8.4 Reliability and availability as tools in evaluation of critical facilities |
199 | 8.5 Critical distribution system configurations |
208 | 8.6 Reliability and availability of critical distribution system configurations |
211 | 8.7 Normative references 8.8 Bibliography |
213 | Chapter 9 Reliability and maintainability verification 9.1 Introduction |
214 | 9.2 Definition of success ratio |
215 | 9.3 Acceptance sampling plan |
216 | 9.4 Minimizing manufacturer and customer risks |
217 | 9.5 Sequential testing plan |
218 | 9.6 Development of a sequential testing plan |
219 | 9.7 Compliance sequential test acceptance limits |
220 | 9.8 Compliance sequential test rejection limits |
223 | 9.9 Case study |
224 | 9.10 Discussion of sequential tests |
225 | 9.11 Conclusion |
226 | 9.12 Normative references 9.13 Bibliography |
227 | Chapter 10 Summary of equipment reliability data 10.1 Introduction |
235 | 10.2 Part 1: Mechanical and electrical equipment reliability and availability data collection con… |
273 | 10.3 Part 2: Equipment reliability surveys (1976–1989) |
297 | 10.4 Part 3: Equipment reliability surveys conducted prior to 1976 |
314 | 10.5 Bibliography |
319 | Chapter 11 Data collection 11.1 Data collection 11.2 Facility identification data 11.3 Facility one-line drawings 11.4 Nameplate information |
320 | 11.5 Critical equipment designation and sparing 11.6 Maintenance data 11.7 Data forms |
323 | Annex 11A (informative) Data collection forms |
377 | Annexes A–Q |
379 | Index |