BSI PD IEC/TR 63042-100:2016
$142.49
UHV AC transmission systems – General information
Published By | Publication Date | Number of Pages |
BSI | 2016 | 32 |
This part of IEC 63042, which is a Technical Report, specifies the reference for the standards and guidelines for UHV AC transmission systems. This document provides an overview of these standards as well as guidelines.
This document is developed to clarify standardization items and/or guideline items for UHV AC transmission systems. It describes the items to be considered for each stage of planning, design, construction, commissioning, operation, and maintenance during the development of IEC publications for UHV AC transmission systems.
NOTE Based on this IEC/TR 63042-100, TC 122 will prepare the standards and guidelines for UHV AC transmission systems, but it is not limited by the framework of the TR. A systematic approach is necessary for the preparation of systems-oriented specifications such as those for planning, design, technical requirements, construction, commissioning, reliability, availability, operation, and maintenance.
PDF Catalog
PDF Pages | PDF Title |
---|---|
4 | CONTENTS |
7 | FOREWORD |
9 | INTRODUCTION |
10 | 1 Scope 2 Normative references 3 Terms and definitions 4 Planning 4.1 General |
11 | 4.2 Security and stability 4.3 Transmission systems |
12 | 4.4 System voltage 4.5 Reliability and availability Tables Table 1 – AC three-phase systems having a highest voltage for equipment exceeding 800 kV Table 2 – Comparison of lightning fault between UHV and 550 kV systems |
13 | 4.6 Transmission network 4.7 Network requirement 4.8 Transmission planning 5 System design 5.1 General 5.2 System design and solutions 5.2.1 Reactive power compensation |
14 | 5.2.2 Protection scheme 5.2.3 Reclosing scheme 5.3 Insulation coordination 5.3.1 General 5.3.2 Lightning overvoltage 5.3.3 Slow front overvoltage (SFO) |
15 | 5.3.4 Very fast front overvoltage (VFFO) 5.3.5 AC temporary overvoltage 6 Transmission line and substation design 6.1 General |
16 | 6.2 Transmission line 6.2.1 General 6.2.2 Basic concept for selecting the UHV AC transmission line 6.2.3 Conductor design for the transmission line 6.2.4 Pollution design for insulators 6.2.5 Air clearance between tower and conductor 6.2.6 Right of way (ROW) 6.2.7 Height of conductor |
17 | 6.2.8 Structural tower design, foundation 6.3 Substation 6.3.1 Area survey and selection 6.3.2 Substation bus scheme |
18 | 6.3.3 Substation switchgear type Figures Figure 1 – Bus scheme |
19 | Table 3 – Substation switchgears’ comparison (GIS, Hybrid-IS, and AIS) |
20 | 6.3.4 Equipment layout Table 4 – The principle technology designs for substations (their components and bays) |
21 | 6.4 Main equipment for the substation and related design 6.4.1 General 6.4.2 Power transformers 6.4.3 Switchgear 6.4.4 Air clearance |
22 | 6.4.5 Seismic performance 6.4.6 Tertiary circuit 6.4.7 Substation electrical auxiliary system 6.5 Control and protection and communication 7 Construction 7.1 General |
23 | 7.2 Transmission line 7.2.1 Transportation and preparing work at site 7.2.2 Foundation 7.2.3 Assembling of tower 7.2.4 Stringing 7.2.5 Quality control 7.3 Substation 7.3.1 Transportation 7.3.2 Installation |
24 | 8 Commissioning 9 Operation and maintenance 9.1 Transmission lines Figure 2 – General method of commissioning on site |
25 | 9.2 Substations 9.2.1 General 9.2.2 Operation 9.2.3 Maintenance |
26 | 10 Environmental considerations 10.1 Transmission lines 10.1.1 General 10.1.2 EMF 10.1.3 Electrostatic induction Figure 3 – Basic way of considering operation andmaintenance of UHV AC substations |
27 | 10.1.4 Electromagnetic induction 10.1.5 Audible noise with corona discharge 10.1.6 Radio interference with corona discharge 10.1.7 Wind noise 10.1.8 Environmental impact 10.2 Substations 10.2.1 Earthing design 10.2.2 Electrostatic-induction design |
28 | 10.2.3 Audible noise mitigation design 10.2.4 Disaster-prevention design |
29 | Bibliography |