IEEE 1277-2020
$59.04
IEEE Standard General Requirements and Test Code for Dry-Type and Oil-Immersed Smoothing Reactors and for Dry-Type Converter Reactors for DC Power Transmission
Published By | Publication Date | Number of Pages |
IEEE | 2020 | 90 |
Revision Standard – Active. The electrical, mechanical, and physical requirements of oil-immersed and dry-type air-core smoothing reactors and dry-type air-core converter reactors for high-voltage direct current (HVDC) applications are specified. Test code is defined and appropriate technical background information is presented or identified.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 1277™-2020 Front cover |
2 | Title page |
4 | Important Notices and Disclaimers Concerning IEEE Standards Documents |
7 | Participants |
8 | Introduction |
9 | Contents |
11 | 1. Overview 1.1 Scope 1.2 Purpose 1.3 Word usage |
12 | 2. Normative references |
13 | 3. Definitions |
14 | 4. Letter symbols |
16 | 5. General requirements—Systems and environmental data 5.1 Usual service conditions |
17 | 5.2 Unusual service conditions |
19 | 5.3 Environmental impact—Oil-immersed smoothing reactors 5.4 Synthetic materials—Oil-immersed smoothing reactors 5.5 Insulation liquid—Oil-immersed smoothing reactors 5.6 Bushings—Oil-immersed smoothing reactors |
20 | 5.7 Design and construction—Oil-immersed smoothing reactors 6. Rating data of smoothing reactors 6.1 Basis for rating 6.2 Rated dc voltage 6.3 Rated currents |
21 | 6.4 Inductance 6.5 Basic impulse insulation level |
22 | 6.6 Cooling classes 6.7 Other requirements |
23 | 7. Rating data of converter reactors 7.1 Basis for rating |
24 | 7.2 Rated dc voltage 7.3 Rated currents 7.4 Inductance |
25 | 7.5 Basic impulse insulation level 7.6 Cooling classes 7.7 Other requirements |
27 | 8. Tests 8.1 General 8.2 Routine, design, and other tests |
31 | 9. Losses and inductance 9.1 Losses |
33 | 10. Temperature rise and loading conditions 10.1 Temperature-rise limits and loading conditions |
34 | 10.2 Temperature of metallic parts in contact with insulation 10.3 Temperature of other metallic parts 10.4 Temperature rise of insulating liquid 10.5 Temperature rise of terminals 11. Dielectric tests and insulation levels 11.1 Impulse tests |
35 | 11.2 DC voltage tests |
37 | 11.3 AC voltage tests |
38 | 12. Test code 12.1 General 12.2 Resistance measurements |
40 | 12.3 Losses and impedance |
44 | 12.4 Temperature-rise test |
50 | 12.5 Dielectric tests for oil-immersed smoothing reactors |
60 | 12.6 Dielectric tests for dry-type smoothing reactors and dry-type converter reactors |
66 | 12.7 Audible sound level test |
71 | 12.8 Short-circuit withstand capability verification |
72 | 12.9 Capacitor discharge test 12.10 DC power test for smoothing reactors |
73 | 12.11 Seismic verification |
74 | 12.12 Stray capacitance measurement 13. Nameplates for HVDC smoothing reactors and converter reactors 13.1 Nameplate location 13.2 Nameplate construction |
77 | Annex A (informative) Construction and installation of dry-type air-core smoothing reactors for HVDC application A.1 General description A.2 Transportation A.3 Concrete foundation A.4 Personnel clearance |
78 | A.5 Installation A.6 Magnetic clearances A.7 Corona protection A.8 Installed sound level |
79 | A.9 Protection practices A.10 Connection A.11 Maintenance |
80 | Annex B (informative) Short-circuit test capability B.1 Power frequency short-circuit testing B.2 Summary of short-circuit test capabilities |
81 | B.3 Calculation of short-circuit stresses |
82 | Annex C (informative) In-service overloading of HVDC smoothing reactors C.1 Introduction C.2 Overloading in service |
84 | C.3 Temperature-rise test for demonstrating normal loading condition |
85 | C.4 Temperature-rise test for demonstrating planned overload conditions |
87 | C.5 Supporting published material |
88 | Annex D (informative) Bibliography |
90 | Back cover |