IEEE 1863-2019
$91.54
IEEE Guide for Overhead AC Transmission Line Design
Published By | Publication Date | Number of Pages |
IEEE | 2019 |
New IEEE Standard – Active. Methods for designing 110 kV to 1000 kV ac overhead transmission lines are provided and may also be used as reference for the design of lower voltage overhead transmission lines. The principles and procedures for designing weather-resistant conductor, ground wire, insulator, structure, and foundation of ac transmission overhead lines are specified.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 1863-2019 Front cover |
2 | Title page |
11 | 1. Overview 1.1 Scope 1.2 Purpose 1.3 Word usage |
12 | 2. Normative references |
13 | 3. Definitions 3.1 Definitions |
14 | 3.2 Acronyms and abbreviations |
15 | 4. Overview 4.1 Laws, regulations, and standards 4.2 Components and selection |
18 | 5. Meteorological design criteria 5.1 Basic wind speed and icing |
20 | 5.2 Reliability of overhead transmission lines |
21 | 6. Electrical design 6.1 Selection of conductor |
24 | 6.2 Corona and electric field, magnetic field effects |
33 | 6.3 Insulation coordination and air clearances |
38 | 6.4 External insulation design for polluted and icing conditions |
42 | 6.5 Lightning protection and grounding |
44 | 7. Structural design criteria 7.1 Mechanical design of conductors, insulators, and fittings |
46 | 7.2 Type of support 7.3 Loads on lines |
48 | 7.4 Design of structural members |
50 | 8. Design of foundations 8.1 General |
51 | 8.2 Design of foundations |
58 | 8.3 Design of connections |
64 | Annex A (informative) Reference design limits for electromagnetic environment A.1 Design limits on radio interference A.2 Design limits on audible noise |
66 | A.3 Design limits for electric field strength |
68 | Annex B (informative) Formula for predicting audible noise from ultra-high-voltage ac transmission lines in China |
69 | Annex C (informative) Flashover voltage test results for air clearances of transmission line structures C.1 Introduction C.2 The 50 percent power-frequency flashover voltage test results for air clearances of transmission line structures |
75 | C.3 The 50 percent switching impulse flashover voltage test results for air clearances of transmission line structures |
88 | C.4 The 50 percent lightning impulse flashover voltage test results for air clearances of transmission line structures |
92 | C.5 Effects of switching overvoltage time-to-crest on flashover voltage |
93 | C.6 Tower width correction approaches for air clearances of transmission line structures |
94 | C.7 Flashover voltage data of air clearances on transmission line towers in high-altitude areas |
96 | Annex D (informative) Calculation of transmission line lightning protection D.1 Number of lightning strikes on line D.2 Waveform of lightning currents D.3 Equivalent impedance of the lightning current channel D.4 Calculation method of lightning shielding failure |
98 | D.5 Calculation method of back flashover |
100 | D.6 Calculation of lightning trip-out rate |
101 | Annex E (informative) Calculation of support grounding resistance E.1 Calculation of power-frequency grounding resistance E.2 Calculation of impulse grounding resistance of simple electrodes |
102 | E.3 Calculation of impulse grounding resistance of multiple electrodes |
104 | Annex F (informative) Reference data for mechanical design of conductors, insulators, and support hardware F.1 Recommended everyday stress values for conductors F.2 Empirical values of EDS of conductors and ground wires (in China) |
105 | F.3 Empirical values of the safety factor of insulators (in China) F.4 Empirical values of the safety factor for support hardware (in China) |
106 | Annex G (informative) Bibliography |
109 | Back cover |