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IEEE 1527 2006

$44.96

IEEE Recommended Practice for the Design of Flexible Buswork Located in Seismically Active Areas

Published By Publication Date Number of Pages
IEEE 2006 64
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New IEEE Standard – Active. The engineering and design of flexible bus connections for bus and equipment in electric power substations is described. This recommended practice gives guidance to the substation engineer who is unfamiliar with seismic considerations in the engineering and design of connections, and provides engineers with the current state of knowledge of the dynamic effects of high-voltage connections and conductors.

PDF Catalog

PDF Pages PDF Title
1 IEEE Recommended Practice for the Design of Flexible Buswork Located in Seismically Active Areas
3 Title page
6 Introduction
Notice to users
7 Participants
9 CONTENTS
11 1. Overview
1.1 Scope
1.2 Purpose
12 2. Normative references
3. Definitions, abbreviations, and acronyms
3.1 Definitions
14 3.2 Abbreviations and acronyms
4. Equipment movement
4.1 Calculation methods to evaluate standalone equipment displacement
15 4.1.1 Recommended method for candlestick and frame type equipment
16 4.1.2 Alternative method for other equipment than candlestick and frame type
17 4.2 Testing methods to evaluate standalone equipment displacement
4.3 Site-specific conditions
18 4.4 Minimum conductor slack and necessary conductor length between equipment interconnected through flexible buswork
19 5. Other connection possibilities
6. High-current connections
21 7. Type of material to use-copper versus aluminum
22 8. Conductor mechanical properties
23 8.1 Recommended values of E and I for calculations
24 8.2 Confirmation by testing
8.3 Single- and multi-conductor bundles
9. Spacers for bundled conductors
25 10. Other considerations
10.1 Electrical clearances
26 10.2 Corona losses
27 10.3 Current-carrying capacity
10.4 Wind and ice effects
28 10.5 Fault conditions
10.6 Loads on terminal pads and seismically-induced dynamic effects of conductors
29 10.7 Three-dimensional (3-D) effects of earthquakes
30 11. Conductor configurations
11.1 Recommended configurations
32 11.2 Calculation method for verifying electrical clearances
11.3 Methods to establish configuration flexibility and terminal loads
33 11.3.1 Static calculation methods
11.3.1.1 Castigliano’s Theorem
34 11.3.1.2 Linear finite element method
11.3.1.3 Nonlinear finite element method
11.3.2 Testing methods
36 11.3.3 Nonlinear dynamic analysis with the finite element method
11.3.4 Discussion on the available methods
37 11.4 Connection hardware
38 Annex A (normative)—Normative tables
40 Annex B (informative)—Tables
44 Annex C (informative)—Figures supporting this recommended practice
54 Annex D (informative)—Informative figures
59 Annex E (informative)—Summary of research done on dynamic effects of flexible conductors used in substations
63 Annex F (informative)—Bibliography
IEEE 1527 2006
$44.96