IEEE 693 2006
$58.50
IEEE Recommended Practice for Seismic Design of Substations
Published By | Publication Date | Number of Pages |
IEEE | 2006 | 179 |
Revision Standard – Active. Seismic design recommendations for substations, including qualification of each equipment type, are discussed. Design recommendations consist of seismic criteria, qualification methods and levels, structural capacities, performance requirements for equipment operation, installation methods, and documentation
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE 693-2005 Front Cover |
3 | IEEE Recommended Practice for Seismic Design of Substations |
6 | Introduction Notice to users Errata Interpretations |
7 | Patents Participants |
10 | Contents |
13 | IEEE Recommended Practice for Seismic Design of Substations 1. Overview 1.1 General 1.2 Scope 1.3 Purpose |
14 | 1.4 How to use this recommended practice |
15 | 1.5 Acceptance of previously qualified electrical equipment |
16 | 1.6 Earthquakes and substations 1.7 Design and construction |
17 | 1.8 The equipment at risk 1.9 Mechanical loads 2. Normative references |
19 | 3. Definitions, acronyms, and abbreviations 3.1 Definitions |
22 | 3.2 Abbreviations and acronyms |
23 | 4. Instructions 4.1 General 4.2 Specifying this recommended practice in user’s specification |
24 | 4.3 Standardization of criteria 4.4 Selection of qualification level |
25 | 4.5 Witnessing of shake-table testing 4.6 Optional qualification methods |
26 | 4.7 Qualifying equipment by group |
27 | 4.8 Inherently acceptable equipment 4.9 Shake-table facilities |
28 | 4.10 Equipment too large to be tested in its in-service configura 4.11 Report templates 5. Installation considerations 5.1 General |
29 | 5.2 Equipment assembly 5.3 Site response characteristics 5.4 Soil-structure interaction 5.5 Support structures |
31 | 5.6 Base isolation 5.7 Suspended equipment |
34 | 5.8 Anchorage |
35 | 5.9 Conductor induced loading |
40 | 5.10 Short-circuit loads |
41 | 5.11 Wind and ice loads 6. Qualification methods: an overview 6.1 General |
42 | 6.2 Analysis methods 6.3 Testing methods |
43 | 6.4 Special test cases |
44 | 6.5 Qualification method for specific equipment 6.6 Functionality of equipment 6.7 Qualification by seismic experience data |
45 | 6.8 Response spectra |
46 | 6.9 Damping 7. Design considerations 7.1 Structural supports, excluding foundations 7.2 Foundation analysis |
47 | 7.3 Station service |
48 | 7.4 Emergency power systems |
50 | 7.5 Telecommunication equipment 8. Seismic performance criteria for electrical substation equip 8.1 Introduction 8.2 Objective |
51 | 8.3 Seismic qualification levels |
52 | 8.4 Projected performance |
54 | 8.5 Seismic qualification 8.6 Selecting the seismic level for seismic qualification |
59 | Annex A (normative) Standard clauses |
86 | Annex B (normative) Equipment, general |
89 | Annex C (normative) Circuit breakers |
94 | Annex D (normative) Transformers and liquid-filled reactors |
101 | Annex E (normative) Disconnect and grounding switches |
105 | Annex F (normative) Instrument transformers |
109 | Annex G (normative) Air core reactors |
112 | Annex H (normative) Circuit switches |
116 | Annex I (normative) Suspended equipment |
121 | Annex J (normative) Station batteries and battery racks |
125 | Annex K (normative) Surge arresters |
129 | Annex L (normative) Substation electronic devices, distribution pane |
132 | Annex M (normative) Metalclad switchgear |
135 | Annex N (normative) Cable terminators (potheads) |
138 | Annex O (normative) Capacitors, series, and shunt compensation |
140 | Annex P (normative) Gas-insulated switchgear |
145 | Annex Q (normative) Experience-based qualification procedures for lo |
147 | Annex R (informative) Composite and porcelain insulators |
160 | Annex S (normative) Analysis report template |
167 | Annex T (normative) Test report template |
177 | Annex U (informative) Specifications |
178 | Annex V (informative) Bibliography |