BSI PD IEC TR 63410:2023
$215.11
Decentralized electrical energy systems roadmap
Published By | Publication Date | Number of Pages |
BSI | 2023 | 90 |
PDF Catalog
PDF Pages | PDF Title |
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2 | undefined |
4 | Blank Page |
5 | CONTENTS |
8 | FOREWORD |
10 | INTRODUCTION |
11 | 1 Scope 2 Normative references 3 Terms, definitions and abbreviated terms 3.1 Terms and definitions |
13 | 3.2 Abbreviated terms |
14 | 4 Methodology |
15 | Figures Figure 1 – From system requirements to product standards (TC8 Road map) Figure 2 – SC 8B work groups, fields and work programmes |
16 | 5 Market analysis, market segmentation and business models 5.1 Online survey 5.1.1 General 5.1.2 Outcomes from the 2018 survey on decentralized electrical energy systems |
17 | 5.1.3 Outcomes from the 2020 survey on microgrids Figure 3 – General view of the microgrids projects implementation in countries |
18 | Tables Table 1 – Market Status and roadmap to 2020 |
19 | Figure 4 – New technologies developed for microgrids |
20 | 5.2 Categories of decentralized electrical energy systems 5.2.1 General 5.2.2 Categories based on application scenarios Figure 5 – Standardization satisfaction in the area |
21 | 5.2.3 Categories based on technical features |
22 | 5.3 Decentralized electrical energy systems market assessment 5.3.1 Stakeholders identification |
23 | 5.3.2 Market outlook Figure 6 – Total microgrids revenue by forecast scenario, world markets:2013-2020 |
24 | 5.4 Market needs and business models for decentralized electrical energy systems Figure 7 – DER Capacity Installments as a Percentage of New Centralized Generation, Regional Averages: 2015-2024, Source: Navigant Research |
27 | 5.5 Conceptual approach from DER to microgrid |
28 | Figure 8 – Recursive conceptual model of DERs Figure 9 – The conceptual model for microgrids |
29 | 6 Reference architectures, roles and use cases 6.1 Architecture model for DER management (as proposed by SyC SE) |
30 | Figure 10 – Example of a hierarchical DER system five-levelarchitecture in SGAM format |
32 | 6.2 Actors and Roles (from SyC SE) Table 2 – Business Roles of the domain |
34 | Table 3 – System Roles of the domain |
37 | 6.3 Use Cases: Microgrids 6.3.1 General |
38 | 6.3.2 Business Use Case A: Microgrid-Guarantee a continuity in load service by islanding referencing IEC 62898-4 |
41 | 6.3.3 Perspectives 6.4 Use Cases: Non-conventional distribution systems 6.4.1 Grid-tied local systems |
42 | 6.4.2 Multi-energy local systems 6.4.3 DC distribution systems |
43 | 6.4.4 Electric vehicles 6.5 Use cases: Virtual power plants |
44 | 7 Standards identification and gap analysis 7.1 Microgrids 7.1.1 General 7.1.2 Needs identified for microgrid standardization |
45 | 7.1.3 Gaps identified for microgrid standardization |
46 | 7.2 Non-conventional distribution systems 7.2.1 Needs identified and gap analysis of grid-tied local system |
47 | 7.2.2 Needs identified and gap analysis of multi-energy local system |
48 | 7.2.3 Needs identified and gap analysis of DC distribution system |
51 | 7.3 Virtual power plants 7.3.1 Needs identified for virtual power plants standardization |
52 | 7.3.2 Gaps identified for virtual power plants standardization 8 Proposal for future actions to address the standardization needs for decentralized electrical energy systems 8.1 Microgrids |
53 | 8.2 Non-conventional distribution systems |
54 | 8.3 Virtual power plants |
55 | 8.4 DC distribution systems |
56 | Annex A (Informative)Online survey A.1 Overview A.2 Result summary and challenges A.2.1 Result summary Figure A.1 – Variety of participants |
57 | Figure A.2 – Involvement of government in the microgrid development |
58 | Figure A.3 – Diversity of microgrid projects and requirement of technologies |
59 | Figure A.4 – Standards needs for microgrids |
60 | Figure A.5 – Participation of government in the non-conventionaldistribution system development |
61 | Figure A.6 – Drivers and types of non-conventional distribution system projects |
63 | A.2.2 Challenges Figure A.7 – Standards needs for non-conventional distribution system |
64 | A.3 List of the questions Figure A.8 – Challenges Table A.1 – List of the questions |
71 | Annex B (Informative)Microgrid and its application B.1 Overview |
73 | Figure B.1 – Microgrid benefits |
74 | B.2 Components B.2.1 General |
75 | Figure B.2 – Microgrid and constitutive components |
76 | B.2.2 Distributed generation Figure B.3 – Generic configuration and main componentsof advanced microgrids enabling technologies |
77 | B.2.3 Distributed energy storage B.2.4 Microgrid modelling, simulation and evaluation B.2.5 Microgrid planning and design B.2.6 Microgrid operation control and energy management |
78 | B.2.7 Microgrid relay protection B.2.8 Microgrid power quality B.2.9 Microgrid information and communication B.3 List of standards |
79 | Table B.1 – Detailed list of existing IEC relevant standards |
81 | Annex C (Informative)List of identified existing microgrids projects |
88 | Bibliography |