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IoT/PowerMatcher TE Test Bed

Explore the European test beds for city power matching, focusing on smart energy management. Learn about the IoT devices and protocols used for natural scheduling, congestion management, and scalability testing. Discover the goals, benefits, and milestones of this innovative project.

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IoT/PowerMatcher TE Test Bed

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  1. IoT/PowerMatcher TE Test Bed Presented by Alexander Krstulovic William J. Miller ISO/IEC/IEEE P21451-1-4, Chairman http://www.sensei-iot.org NIST TE Challenge Test Bed Team Leader 05/17/2016 1

  2. European Testbeds City 1 & 2 Powermatching Houthaven Lochem Energy Smart Energy Collective VIOS Topsector NL Matrix V Couperus Energy Supply Cooperative KIC InnoEnergy Ecogrid FP7 Hybrid Energy Grid Management Hegrid, KIC ICT Labs

  3. European PM Results • Protocol: • Proof of Concept • Customer engagement • Positive Renewable integration • Wide range of mix of devices • Effective natural scheduling of EV’s • Effective congestion management on Transformer through LMP • Scalability tests • Easy integration of devices through EFI

  4. Goals and Description • Goals • Security in Transactive Energy System • Resiliency in Transactive Energy System • Provide bi-directional data exchange to multiple PowerMatcher nodes secure by ISO/IEC/IEEE P21451-1-4 (Sensei-IoT*). • Expected benefits for utilities include reduced complexity and consumer engagement in better control of their energy usage resulting in cost savings while maintaining grid loads and support of renewable generation • Protocol: • IoT XMPP Interface to PowerMatcher and Energy Flexibility Interfaces (EFI)

  5. Devices- Ecosystem • The devices participating in this energy grid will include: • 1. Time-shifters – appliances or equipment that can be operated on a discretionary basis to take advantage of lowest energy prices. • 2. Buffers – devices that can store energy. • 3. Uncontrolled loads or producers, such as wind and solar generation. • 4. Energy storage in the form of batteries or electric vehicles (Eves). • 5. Projected benefits include giving consumers maximum choice in device decisions; preventing vendor “lock-ins”; and creating an eBay-like energy • Examples: • HVAC, Solar Inverters, Electric Car Rechargers, Ventilation Systems, Lighting and Building Management Systems (BMS) CALL FOR PARNERS

  6. Team Participants and Roles • Erie County – Buffalo, NY USA • to supply test sites and coordinate local actions • Esensors – Buffalo, NY USA • to supply wireless power meters for test bed include development of device drivers • TNO/Alliander – Netherlands • to help integrate IoT XEPs SDK into PowerMatcher • Clayster – Sweden • to supply Provisioning Server • MaCT USA – Washington, DC USA • To provide project management including IPDX.NET data sharing • Universities – to provide link to IPDX.NET for data federation • SUNY/Buffalo State (Buffalo, NY) SUMMER 2016 • Rowan University (Glassboro, NJ) PENDING • University of Ontario Institute of Technology (Oshawa, ON) PENDING

  7. Milestones • Smart City: Erie County (Buffalo, NY) • Determine device locations – May 2016 • Data Analytics - June 2016 • Provisioning Server – May 2016 • PowerMatcher IoT XEPs – June/July 2016 • Integration Testing – August 2016 • Field Testing – September 2016

  8. Network Architecturefor Transactive Energy (TE) 8 Fine-gained demo

  9. Thank You

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