BS EN IEC 61968-5:2020
$198.66
Application integration at electric utilities. System interfaces for distribution management – Distributed energy optimization
Published By | Publication Date | Number of Pages |
BSI | 2020 | 56 |
IEC 61968-5:2020 is the description of a set of functions that are needed for enterprise integration of DERMS functions. These exchanges are most likely between a DERMS and a DMS. However, since this is an enterprise integration standard which may leverage IEC 61968-100:2013 for application integration (using web services or JMS) or other loosely-coupled implementations, there are no technical limitations for systems with which a DERMS might exchange information. Also, it should be noted that a DERMS might communicate with individual DER using a variety of standards and protocols such as IEC 61850, IEEE 2030.5, Distribution Network Protocol (DNP), Sunspec Modbus, or perhaps Open Field Message Bus (OpenFMB). One role of the DERMS is to manage this disparity and complexity of communications on the behalf of the system operator. However, the communication to individual DER is out of scope of this standard. Readers should look to those standards to understand communication to individual DER’s smart inverter. The scope will be limited to the following use case categories: • DER group creation – a mechanism to manage DER in aggregate • DER group maintenance – a mechanism to add, remove, or modify the members and/or aggregated capabilities of a given group of DER• DER group deletion – removing an entire group • DER group status monitoring – a mechanism for quantifying or ascertaining the current capabilities and/or status of a group of DER • DER group forecast – a mechanism for predicting the capabilities and/or status of a group of DER for a given time period in the future • DER group dispatch – a mechanism for requesting that specified capabilities of a group of DER be dispatched to the grid • DER group voltage ramp rate control – a mechanism for requesting that a DER group following a ramp rate curve • DER group connect/disconnect – a mechanism to request that DER either isolate themselves, or reconnect to the grid as needed.
PDF Catalog
PDF Pages | PDF Title |
---|---|
2 | undefined |
5 | Annex ZA(normative)Normative references to international publicationswith their corresponding European publications |
7 | English CONTENTS |
10 | FOREWORD |
12 | INTRODUCTION |
14 | 1 Scope Tables Table 1 – IEC 61968-5 Profiles |
15 | 2 Normative references Table 2 – IEC 61968-9 Profiles Table 3 – Document overview for IEC 61968-5 |
16 | 3 Terms, definitions and abbreviated terms 3.1 Terms and definitions 3.2 Abbreviated terms |
17 | 4 Conventions 4.1 UML diagrams 4.2 Units of measure in DER enterprise integration profiles 5 DER enterprise integration use cases 5.1 General |
18 | Figures Figure 1 – Architectural options for DERMS deployments |
19 | Figure 2 – Reference architecture, IEC TR 62357‑1:2016 |
20 | 5.2 DER Group creation 5.2.1 General 5.2.2 Grouping requirements 5.2.3 Challenges posed by dynamic distribution system configurations Table 4 – DER Grouping functional requirements |
21 | Figure 3 – Example of simple radial feeder Figure 4 – Example of feeder with alternate substation |
22 | 5.2.4 Challenges posed by enterprise information models Figure 5 – Example of an interconnected distribution network |
23 | Figure 6 – Common Information Model illustration |
24 | 5.2.5 Using arbitrarily-defined groups for DER aggregation Figure 7 – Request/Reply message exchange pattern for the creation of a DERGroup |
25 | Figure 8 – Notification message exchange pattern for the creation of a DERGroup |
26 | 5.3 Maintenance of DERGroups 5.3.1 General Figure 9 – Message exchange patterns to support adding or modifying DERGroup membership or capabilities, or deleting a group member |
27 | 5.3.2 DER Group maintenance example Figure 10 – Message exchange pattern reflecting deleting an entire DER group (delete) Table 5 – Example DER Group A membership before update |
28 | Table 6 – Example DER Group A after adding a fourth member |
29 | 5.4 DER Group queries Table 7 – Example DER Group A membership after delete |
30 | 5.5 DER Group status monitoring Figure 11 – Message exchange pattern to support querying a DER group |
31 | Figure 12 – Message exchange pattern for DER Group status monitoring (PULL) Figure 13 – Message exchange pattern for DER Group status monitoring (PUSH) |
32 | 5.6 DER Group forecast Figure 14 – Example of points to represent battery storage group forecast |
33 | Figure 15 – Battery DER Group availability example |
34 | Figure 16 – Message exchange pattern for DER Group forecasting (PULL) |
35 | 5.7 DER Group dispatch Figure 17 – Message exchange pattern for DER Group forecasting (PUSH) |
36 | Figure 18 – Example Message exchange pattern for DER Group dispatch |
37 | 5.8 DER Group Connect/Disconnect 5.9 DER group capability discovery |
38 | 5.10 DER group voltage regulation function |
39 | Annex A (normative)Data requirements for DERMS profiles A.1 General A.2 DERGroups profile (constrained version) Table A.1 – IdentifiedObject |
40 | A.3 DERGroups profile (unconstrained version) A.4 DERGroupDispatches profile (constrained version) Table A.2 – DERGroups profile Table A.3 – DERGroups (Unconstrained) Profile |
41 | A.5 DERGroupDispatches profile (unconstrained version) A.6 DERGroupForecasts (constrained) Table A.4 – DERGroupDispatches (Unconstrained) Profile Table A.5 – DERGroupDispatches (unconstrained) profile Table A.6 – DERGroupForecast (constrained) profile |
42 | A.7 DERGroupForecasts (unconstrained) A.8 DERGroupStatuses profile A.9 EndDeviceControls A.10 DERGroupQueries Table A.7 – DERGroupForecast (unconstrained) profile Table A.8 – DERGroupStatuses profile |
43 | A.11 DERGroupStatusQueries A.12 DERGroupForecastqueries Table A.9 – DERGroupQueries Table A.10 – DERGroupStatusQueries Table A.11 – DERGroupForecastQueries |
44 | Annex B (normative)Super classes B.1 General B.2 CurveStyle class B.3 DERCurveData class B.4 DERFunction class Table B.1 – CurveStyle class Table B.2 – DERCurveData class |
45 | B.5 DERMonitorableParameter class B.6 DERNamePlate class Table B.3 – DERFunction class Table B.4 – DERMonitorableParameter class |
46 | Table B.5 – DERNamePlate |
47 | B.7 DispatchSchedule class B.8 EndDevice class Table B.6 – DispatchSchedule |
48 | B.9 EndDeviceGroup class B.10 EndDeviceGroup (constrained) for dispatches and forecasts B.11 EndDeviceGroup (unconstrained) for dispatches and forecasts Table B.7 – EndDevice Table B.8 – EndDeviceGroup class Table B.9 – EndDeviceGroup (constrained) dispatches class Table B.10 – EndDeviceGroup (unconstrained) for dispatches and forecasts |
49 | B.12 Names B.13 NameType B.14 NameTypeAuthority B.15 Status class Table B.11 – Names Table B.12 – NameType Table B.13 – NameTypeAuthority Table B.14 – Status class |
50 | B.16 Version class Table B.15 – Version class |
51 | Annex C (normative)Enumerated classes C.1 General C.2 abnormalOperatingPerformanceCategory enumeration class C.3 DERParameterKind enumeration class Table C.1 – abnormalOperatingPerformanceCategory Table C.2 – DERParameterKind |
52 | C.4 DERUnitSymbol Table C.3 – DERUnitSymbol |
53 | C.5 FlowDirectionKind enumeration class C.6 normalOperatingPerformanceCategory enumeration class C.7 TimeIntervalKind enumeration class Table C.4 – FlowDirectionKind Table C.5 – normalOperatingPerformanceCategory |
54 | C.8 UnitMultiplier enumeration class Table C.6 – TimeIntervalKind Table C.7 – UnitMultiplier |