Smart Energy Field Trials: Insights from the FINESCE Project in the FI-PPP. Dr. Fiona Williams, Project Coordinator

Transcription

1 Smart Energy Field Trials: Insights from the FINESCE Project in the FI-PPP Dr. Fiona Williams, Project Coordinator

2 ICT in Smart Energy Field Trials 1. From re-active to pro-active energy management 2. The FI-PPP ICT approach for Smart Energy Grids 3. FINESCE - field trials of ICT for smart energy 4. Talking energy! Dr. Fiona Williams, Ericsson, Page 2

3 ICT in Smart Energy Field Trials 1. From re-active to pro-active energy management 2. The FI-PPP ICT approach for Smart Energy Grids 3. FINESCE - field trials of ICT for smart energy 4. Talking energy! Dr. Fiona Williams, Ericsson, Page 3

4 GRID transformation TODAY ENERGY RESOURCES CENTERED Generation Transmission Distribution Consumer ONE ENERGY FLOW, ONE INFORMATION FLOW EXPECTED DISTRIBUTED AND PARTICIPATIVE MARKET Source: NIST Smart Grid Framework 1.0 Sept 2009 Distributed generation and consumption More focus on customer concerns; quality, security of supply New market participants, pro-sumers, aggregators, mobility service operators, etc New management models; transparency and non discriminatory access. BI-DIRECTIONAL ENERGY FLOW, N INFORMATION FLOWS New products and services.

5 The Future Internet of Energy ICT Smart Energy Internet technologies Energy Benefits of using future internet technologies: lower costs for application development easy access for new partners scalability of applications Future Internet of Energy: organising many... (volatile) distributed energy production (flexible and unpredictable) consumers electric vehicles (as consumers and storage)

6 ICT in Smart Energy Field Trials 1. From re-active to pro-active energy management 2. The FI-PPP ICT approach for Smart Energy Grids 3. FINESCE - field trials of ICT for smart energy 4. Talking energy! Page 6

7 FI-PPP Family of projects

8 cmp Microgrid Control Center IF6 Ov erlay Grid Inter Control Communication Network Monitoring IF1 Operation Optimization Communication Front End for Network Devices State Analysis IF2 IF7 Operator Interface Supply & demand balancing Realt-time High-Speed Data Bus Communication Front End for Prosumer Devices IF3 IF8 Market Management Configuration Management Contract Management Communication Network Management Maintenance Enterprise Service Bus... IF9 Forecasting & Scheduling Historical Information System (short & long-term) Planning... Device Registry IF4 Customer Serv ice Front End IF5 FI-PPP Phase I ( ): FINSENY s 4-Step Approach 1. Scenario description Identify use cases and actors (market roles as well as systems & devices) according IntelliGrid method uc Use Case Model Actor System Use Case Outline Usecase Subfunctions 2. ICT requirements Define requirements for communication & information flows as well as services and middleware 3. Functional Architecture Identify key functional building blocks and interfaces, specify data models and communication protocols Develop ICT architecture based on common and domain specific enablers 4. Trial candidates Identify trial candidates taking into account relevance, trial setup and reuse of existing trials Legend Candidate for Generic Enabler (GE) Combination of GE and domain-specific enablers Candidate for domain-specific enabler Domai n

9 FINESCE INFINITY FI-WARE XI-FI FI PPP 2013 FI-WARE provides a large selection of reusable key technology enablers, called Generic Enablers Validate Generic Enablers via largescale service and application use case trials in different business sectors 9

10 ICT in Smart Energy Field Trials 1. From re-active to pro-active energy management 2. The FI-PPP ICT approach for Smart Energy Grids 3. FINESCE - field trials of ICT for smart energy 4. Talking energy! Dr. Fiona Williams, Ericsson, Page 10

11 FINESCE initiated and led by Ericsson Eurolab FINESCE strategic goals: Foster Europe s leadership in ICT solutions for Smart Cities and Smart Energy Team-up the ICT and Energy sectors to build ICT-enabled sustainable energy management

12 20 partners and 7 trials sites Trial site Partner site

13 Video of E.ON Malmö Smart Energy site LdoG0vXSyKw&index=16 Page 13

14 Trial 1: FI Providing Sustainable Smart City Energy (Malmö, Sweden) Using Future Internet as an enabler for innovation and opening of closed systems Demonstrate optimization of supply and demand across different energy carriers, such as electricity, heat and cooling

15 Trial 1 Introduction Scope The scope of the WP1 trial is to execute Demand Side Management and Demand Side Response tests with external buildings in the Hyllie district, Malmö, Sweden, based on an integrated approach of energy carriers Desired outcomes How Future Internet technologies can contribute to an efficient and robust Demand Side Management system Proof of concept and evaluation on solution which architecture is based on distributed energy management capability and centralized portfolio management Evaluate and test different business model(s) according to defined use cases to obtain better view on Demand Side Management and Demand Side Response as well as ideas on customer s potential to act as balancing power Scale-up strategy for the trial, e.g. ability for other towns/regions/business sectors to use the results/functionality Hyllie, Malmö Participants E.ON, RWTH Aachen Page 15

16 Trial 2 introduction Motivation: Support the change of end user behaviour towards a more optimal usage of renewable energy when available. Create an opportunity for entrepreneurs and SMEs to implement, test and improve new prosumer services, thus fostering innovation. Scope: The WP will follow two streams of activities: Energy management in a community of 25 single family houses in the Horsens area Energy management in a commercial office building in Madrid Objectives: Evaluate the value provided by enabling innovative services to prosumers using FI Generic Enablers in the two trial sites. Jointly, the two streams of activities will address the following objectives: 1. Enable value added services through an open FI based platform with FINESCE APIs, offering rich data on energy needs and consumption patterns. 2. Promote energy efficiency via incentives from the energy market place and dynamic tariffs.

17 WP2 trial sites Stenderup

18 Virtual Utility from the North Sea to the river Rhine Trial 3

19 Trial 3 - FI Developing B2B electricity eco-system - Building a cross-border Virtual Utility Connectivity Management GE Connectivity Manager Motivations Combine renewable Energy production with Demand Site Management to a Virtual Utility Combine different volatile energy production to guarantied CO2 free certified energy Wind GW Virtual Power Plant Control Objective Increase the part of renewable Energy of the consumption of electrical Energy Solar GW TSO Scope Bio Mass GW Smart Energy Solution GE: Complex Event Processing Trial installation in Belgium and Germany ~10 Renewable energy sources ~1 Demand Site

20 Belgium

21 Germany

22 Constrained Challenge! Real-time challenges End 2 End Data Management Security in critical Infrastructure Production Schedule Aggregation Demand Site Response Demand Site Management challenges Energy Schedule Planning Production Process Steering through Energy Production

23 Trial 3 Stream 2: Industrial Demand-Side Management Development of an energy management system in a factory real-time energy consumption monitoring and processing energy efficient production planning and control system variable electricity tariffs investigate opportunities for load shifting in industry Layout of the demonstration plant at the Campus Cluster Logistics at RWTH Aachen University

24 Trial 4 FI Building the Energy Marketplace Motivations High density of Renewable Energy Sources Generation is more and more distributed Demand is more controllable than production Objective to increase the grid stability and efficiency by using energy market mechanisms Scope Experimentation in Terni (Italy) ~15 Customers ~2 Renewable Energy Sources Marketplace for Demand Side Management

25 POWER [MW] Context Trial site: Terni (Italy) Page LV PRODUCTION PLANTS

26 & Problem Upstream Active Power PV Generated Active Power Downstream Active Power High density of DERs (15-30%); Energy consumption not aligned w.r.t. production from PV plant Power losses due to reverse power flows 24-hours sample Load Profile Energy Consumption needs to be shifted in order to maximise usage from local PV plants and minimise reverse power flows Page 26

27 Dr. Fiona Williams, Ericsson, Page 27

28 Objectives: ecar batteries as interruptible loads to balance the power grid Substation communication for power management Simulation at RWTH to scale up results Trial site Ireland Future Internet : Electricity in Action trial site partner location

29 Trial site Ireland - Demand Control

30 Trial 5: Part II Smart Grid Communication Objectives Develop a highly advanced IP-based smart grid communication network based on Optical Packet Switch and Transport (OPST) architecture Implement and gain knowledge of FI- Ware Security Generic Enabler Enhance knowledge of utilities smart grid communication requirements as well as gap analysis in this area Smart Grid Communications using OPST

31 Simulation Support at RWTH The Institute for Automation of Complex Power Systems at RWTH is equipped with a unique infrastructure for simulation of power systems and interaction with communication infrastructure The simulation facility will be used both as proof of concept and as as test for scalability Real-Time Digital Simulator (Copyright Peter Winand)

32 API Layer Offers Services to Apps Trials + open call topics FINESCE SME contest Phase III APP APP APP APP APP APP APP APP APP APP APP APP APP APP Service Service Service Service API Layer Service Service Service Service GE DSE DSE FINESCE Trial System DSE DSE DSE DSE DSE DSE GE GE GE GE GE GE GE Device Sensor Actor Device Actor

33 FINESCE API Services per Category and Trial WP1 WP2 WP3 WP4 WP5 WP 1 Smart City, WP 2 Smart Region, WP 3 X-Border VPP, WP4 emarket, WP 5 ecar & Dist. network Dr. Fiona Williams, Ericsson, Page 33

34 ICT in Smart Energy Field Trials 1. From re-active to pro-active energy management 2. The FI-PPP ICT approach for Smart Energy Grids 3. FINESCE - field trials of ICT for smart energy 4. Talking energy! Page 34

35 Talking Energy! The energy sector needs to build communications and IT capabilities into it s systems to be able to operate power networks based on renewable energy sources. In many cases, standard ICT systems can fulfill all the requirements (e.g. e-mobility). The range of requirements placed on the ICT systems by some of the smart grid use cases is extreme, particularly in terms of availability, reliability, latency and security. Use cases in the low and medium voltage consumer and distribution networks have scope for API s which create a basis for business innovation. Page 35

36 FINESCE Team up with us! FINESCE open call for new partners (1.38 M ) Closing deadline 13th November at C.E.T. FINESCE Student contests - Q1 & 2, 2014 student contest (internships for winners) & hackathon FINESCE Trial Open Days experience our trials 1st hand! March 2014 Madrid, Spain (Smart office buildings) June 2014 Aachen, Germany (Smart car factory and VPP) September 2014 Dublin, Ireland (EV charging and Grid trial) December 2014 Horsens, Denmark (Smart Region & homes) February 2015 Terni, Italy (E-marketplace for energy) June 2015 Malmö, Sweden (Smart City area) FINESCE Innovation Community ( for all interested to follow what we are doing membership is free of charge just enter your address on our web site or give us a business card

37 Thank you for your attention!

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