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technische universität dortmund Communication Networks Institute Evaluation of OCPP and IEC 61850 for Smart 1, Claus AmtrupAndersen 2, Christian Wietfeld 1 1 Dortmund University of Technology, Communication Networks Institute, Dortmund, Germany, EMails: jens.schmutzler@tu-dortmund.de, christian.wietfeld@tu-dortmund.de 2 EURISCO Research & Development, Odense, Denmark, EMails: caa@eurisco.dk Organized by Hosted by In collaboration with Supported by

Agenda Introduction to EVSE Backend Communication Standardization Landscape for V2G Communication Interface Focus on ISO/IEC 15118 State of the Art Backend Communication Open Charge Point Protocol (OCPP) IEC 61850-90-8 E-Mobility Object Model Comparison of OCPP & IEC 61850-90-8 Lessons Learned Outlook 2

Introduction to EVSE Backend Communication Use Case Overview for EVSE Backend Communication Today s / Short Term Use Cases Charge Authentication (incl. Roaming) Billing of Charging Processes Remote Customer Support Charge Spot Reservation Infrastructure Operations Asset Management Mid- & Long Term Use Cases Smart Charging Support for Local Infrastructures (Local Scope) Smart Charging Support for Grid Services ( Regional Scope) Communication Networks Institute Mid- & Long Term Use Cases enabled by ISO/IEC 15118 Support 3

Standardization Landscape of E-Mobility V2G Interface Communication Networks Institute Communication 3 4 Security ISO/IEC 27000 Electric Vehicle 2 Charging Topology 1 ISO/IEC 15118 IEC 61850 IEC 62351 IEC 61439-1 Plugs, In- & Outlets IEC 61439-7 IEC 61851-21 IEC 62196-1 IEC 62196-2 IEC 62196-3 IEC 61980-1 IEC 61980-3 IEC 61980-2 IEC 61851-1 IEC 61851-23 IEC 61851-22 IEC 61851-24 5 Safety IEC 61140 IEC 62040 IEC 60529 IEC 60364-7-722 ISO 6469-3 ISO 17409 4

Scope of ISO/IEC 15118 Vehicle-to-Grid Communication Interface Primary Actors Secondary Actors Spot Operators Electric Vehicle Electric Vehicle Charge Spot Service Providers EVCC Service Impl. Interface Interface SECC Service Impl. Interface Interface Interface Interface SA SA Service Service Impl. Impl. SA Service Impl. Frontend Comm. Backend Comm. IN Scope of ISO/IEC 15118: Complete Technical Specification for Front-End Communication Interface between EVCC and SECC IN Scope of ISO/IEC 15118: Specification of trustworthy End-to- End (EV to Secondary Actors) Data Sets, e.g. Auth. Credentials, Tariffs, Schedules etc.) NOT in Scope of ISO/IEC 15118: Backend Communication Interfaces to Secondary Actors 5

V2G CI Message Sequence Chart Backend Relevance Communication Networks Institute 6

V2G CI Message Sequence Chart Backend Relevance Communication Networks Institute 7

V2G CI Message Sequence Chart Backend Relevance Communication Networks Institute 8

Open Charge Point Protocol (OCPP) Introduction through e-laad in 2009 Official Release Version 1.5 defines: Charge Point Service (CPS) 14 Operations Central System Service (CSS) 9 Operations Service Supported Operations Service Supported Operations OCPP Charge Point Service (CPS) Cancel Reservation Change Availability Change Configuration Clear Cache Data Transfer Get Configuration Get Diagnostics Get Local List Version Remote Start / Stop Transaction Reserve Now Reset Send Local List Unlock Connector Update Firmware OCPP Central System Service (CSS) Authorize Boot Notification Data Transfer Diagnostics Status Notification Firmware Status Notification Heartbeat Meter Values Start / Stop Transaction Status Notification OCPP 1.5 scope limited to set of most important short term use cases 9

OCPP Protocol Design Paradigms Bi-directional Client-Server Web Service Architecture Limited to Request Response Message Exchange Patterns Mostly atomic operations No predefined sequences as opposed to ISO/IEC 15118 10

OCPP Protocol Stack OCPP 1.5 adopts SOAP-based WS Messaging Architecture Information Model and Message Binding based on XML Schema and WSDL FTPS used for Firmware Update and uploading Diagnostics Data Channel to EVSE may be secured by HTTPS (SSL / TLS) 11

IEC 61850 - Communication Networks and Systems for Power Utility Automation IEC 61850 defines series of standards for automating grid assets According to IEC Roadmap IEC 61850 is Core Standard for future Smart Grid Deployments Initial Application Area: Intra- and Inter-Substation Automation Domain Today s supplementary Application Area: Growing Domain of Distributed Energy Resources (DERs) EV connected to charge spot EV Charge Spot Electric Vehicle Modelling of DERs necessary 12

IEC 61850-90-8 E-Mobility Object Model (1/2) DER Information Model for EVs AC & DC Charging Bottom Up Modeling Approach based on E-Mobility V2G Interface Standardization Landscape Harmonized with other types of DERs supporting portfolios with heterogeneous DERs Scope considers more mid & long term use cases: Integration of EV as DER in the Grid (Operational State of EV-based DER) Charge Negotiation / Smart Charging Source: IEC TR 61850-90-8: Communication System for Distributed Energy Resources Part 90-8: Object Model for Electric Vehicles 13

IEC 61850-90-8 Operations & Load Profile Propagation Communication Networks Institute IEC 61850-90-8 Operations: Service IEC 61850 Charge Point Service Supported Operations Get EVSE (& EV) Nameplate Get Charge Power Rating Get Charge Cable Rating Get Plug Present Get (Available) Connection Type Get State (A, B, C, D, E, F) Enable / Disable Dig. Comm. Get User Target Settings (Energy Amount & Departure Time) Get EV Charge Power Rating Set Local Load Limit Profile (EVSE/Station Limits) Report Local Load Reservation Profile (EV/EV Pool Reservation) 14

IEC 61850 Protocol Stack Object-oriented Modeling Approach Client-Server Messaging Paradigm for less time critical Messages with TCP/IP Stack ACSI in order to abstract from concrete SCSM Implementation like MMS Communication Channel secured by TLS Supports Role Based Access Control (RBAC) through IEC 62351 15

Comparison of OCPP 1.5 & IEC 61850-90-8 Criteria OCPP 1.5 IEC 61850-90-8 Functional Scope Support for operational tasks (e.g. authentication & transaction handling, metering, reservation etc.) Support for maintenance tasks (e.g. status notifications, configuration & firmware mgmt., diagnostics etc.) No Grid Services / Smart Charging Support No RBAC Support Technical Issues / Drawbacks Specification & Standard Maturity Huge Message Overhead due to Plain Text SOAP-over-HTTP Binding e.g. resulting in complex Heartbeat Mechanism Specification does not clearly formulate requirements (conformance issues) Lack of specification and conformance details is dealt with open reference implementation Limited support for operational tasks (e.g. no authentication & transaction handling, reservation etc.) Limited support for maintenance tasks Grid Services / Smart Charging Support RBAC Support Inflexible and cumbersome MMS binding mechanism (WG17 working on WS-based binding mechanism) Specification does not clearly formulate requirements Complexity of IEC 61850 (long learning curves) Complex and time consuming standardization process 16

Lessons Learned Combined approaches of OCPP and IEC 61850-90-8 would offer: Added value in terms of functional coverage (short, mid and long-term use cases for operations, maintenance tasks, and grid services) Consideration of EVSE- and Grid-Operator s business focus Integration options: 1. Leverage IEC 61850-90-8 E-Mobility Object Model as Meta Model for Smart Charging in OCPP 2. Integrated approach with separate OCPP and IEC 61850-90-8 services and unified WSbased binding mechanism EV Comm. Controller EV Finite State Machine 15118 Interface 15118 Interface Charge Point Communication Controller EVSE Finite State Machine OCPP Object Model Central System Client Charge Point Service 61850 Service 61850-90-8 Object Model WS Msg. Framework OCCP 1.5 61850 OCCP 1.5 61850 WS Msg. Framework Secondary Actor OCPP Object Model Central System Service Charge Point Client 61850 Service 61850-90-8 Object Model Frontend Comm. Backend Comm. 17

Outlook Roadmap for OCPP 2.0 Consideration of ISO/IEC 15118 Smart Charging (schedules) Advanced diagnostics Optimized transport mechanisms (for e.g. bandwidth optimization) More detailed compliance definition emi 3 Group WG5 currently consolidates requirements for charge spot backend protocols Various backend protocols were proposed / nominated WG5 goal: Drafting of backend protocol description based on lessons learned from consolidation process Keep IEC compliance for harmonized grid integration of EVs with other types of grid assets e.g. heterogeneous DER portfolios 18

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Backup 20

IEC 61850 Standard Overview 21

IEC 61850 Information Modeling Device with local intelligence: e.g. control / monitoring capabilities, advanced communication means or electrical protection functions Function of the IED: e.g. protection, (self-) monitoring, auto-reclosure, control and communication Abstract logical view on the IED topology (Group of Logical Nodes) Describes one functional entity as Logical Nodes according to IEC 61850-7-4 & IEC 61850-7- 420 specifically for DERs Defines the services on top of the OIM. Binding the Logical Node and its Object Information Model to service and communication interfaces Object Information Model (OIM) of a Logical Node according to its type definitions Underlying communication protocol stack for IED communication functions 22

IEC 61850-90-8 E-Mobility Object Model (2/2) Proposed E-Mobility Object Model for IEC 61850-7-420 DEEV Electric Vehicle DSCH DEOL PLC Charge Spot DESE DSCH Safety & Switching Devices MMTR RCCB XSWI XCBR ZSAR ZCAB Secondary Actors Service Providers System Operators DESE: EV Supply Equipment DEOL: EVSE Outlet DEEV: Electric Vehicle DSCH: Energy & Ancillary Service Schedule MMTR: Electric All Energy relevant Meter E-Mobility Standards for the Vehicle-to- XSWI: Contactor Grid Interface mapped to IEC 61850-7-420 with four new/adapted XCBR: Circuit Breaker Logical Nodes: RCCB: Residual Current Device ZSAR: Surge Arrester DESE: EV Supply Equipment DEOL: EVSE Outlet DEEV: Electric Vehicle DSCH: Energy & Ancillary Service Schedule 23