IEEE 1887 2017
$33.04
IEEE Guide for Wayside Energy Storage Systems for DC Traction Applications
Published By | Publication Date | Number of Pages |
IEEE | 2017 | 50 |
New IEEE Standard – Active. Traction power systems experience some of the most extreme variations in local power loads as compared to most otherre large scale electric power supply networks. These variations create challenges in the construction of reliable electric power delivery systems and in the performance of the rolling stock dependent on power supplied by the system. A solution is offered by energy storage by smoothing out these power variations, absorbing energy as system voltage rises, and delivering energy as voltage drops. Engineers are helped by this guide to identify where these solutions can provide the greatest benefits, design solutions with the greatest impact, and quantify the costs and benefits of deploying new solutions.
PDF Catalog
PDF Pages | PDF Title |
---|---|
1 | IEEE Std 1887-2017 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 |
12 | 2. Normative references 3. Definitions |
14 | 4. Applications 4.1 Introduction 4.2 Energy recovery 4.3 Voltage regulation |
15 | 4.4 Emergency backup 4.5 Peak shaving 4.6 Load shifting 4.7 Frequency regulation |
16 | 5. Common technologies 5.1 Introduction 5.2 Electrostatic storage |
17 | 5.3 Mechanical storage 5.4 Electrochemical storage 6. Common topologies 6.1 Overview 6.2 Control |
18 | 6.3 Connectivity 6.4 Integration 7. Specifying a wayside energy storage system |
19 | 7.1 Overview 7.2 Project definition |
21 | 7.3 Scope of work 7.4 Technical specification |
22 | 8. Economic consideration 8.1 Overview 8.2 Cost-benefit analysis |
24 | 8.3 Price of electricity 8.4 Grid connection charge 8.5 Traction power system expansion |
25 | 8.6 Onboard or wayside resistors 9. Modeling and simulation of energy storage 9.1 Introduction 9.2 Objectives 9.3 Modeling, simulation, and optimization process |
27 | 9.4 Energy storage model |
31 | 9.5 Simulation output 10. Performance 10.1 Overview 10.2 Performance metrics |
36 | 10.3 Electrical protection 10.4 Power isolation 10.5 System monitoring and control 10.6 Insulation coordination 10.7 Electromagnetic compatibility (EMC) 10.8 Operation and maintenance |
38 | 11. Safety and environment 11.1 General 11.2 Failure modes and effects criticality analysis |
39 | 11.3 Hazard analysis 11.4 Operating saftey |
40 | 11.5 Electrical safety 11.6 Emergency response 11.7 Material safety 11.8 Environment 12. Installation and integration 12.1 General |
41 | 12.2 Interfaces 12.3 Monitoring and control |
42 | 12.4 Grounding 12.5 Traction power protection coordination 12.6 Traction power sectionalization 12.7 Control power 12.8 Site safety and security |
43 | 12.9 Fire safety 12.10 Physical installation 12.11 System operations 13. Verification and validation 13.1 Overview |
44 | 13.2 Factory testing |
45 | 13.3 Post-installation check-out 13.4 Field testing and validation |
48 | Annex A (informative) Reliability and maintainability |
49 | Annex B (informative) Bibliography |
50 | Untitled Back cover |