Chair: Erich Gunther. The SGTCC focuses on testing and certification programs and processes that intend to accelerate the availability of interoperable systems and devices for the Smart Grid. It has developed processes, as embodied in its Interoperability Process Reference Manual (IPRM), that provide approaches and best practices for industry test programs that focus on interoperability, and promotes widespread adoption of such programs.
The meeting will cover:
1) Process for codifying the IPRM Version 3 as a standard
2) Status update on PAP23 activities
3) Update and discussion of the Catalog of Test Programs (CoTP)
4) Discussion regarding restart of the Catalog of Standards (CoS) review working group
5) Discussion to support development of a prioritized SGTCC work plan for 2015Chair: Ron Cunningham. The SGAC via AWP is currently working on vetting and identifying voids in a set of architectural entities (e.g. actors, services) to help form a common set of vocabulary for use in future business use case, conceptual/logical architecture, and standards development. This effort includes categorizing these entities as to architectural hierarchy levels (conceptual, logical, physical) along with mapping them to the smart grid domains and SGAM zones. AWP also continues to work with other industry and international groups in clarifying and extending architectural frameworks and associated models. This meeting will refine the set of actors/roles to ensure consistency and completeness with US and international standards.
“Standardization of a Utility Field Message Bus”
Stuart Laval, Manager, Technology Development, Duke Energy
Duke Energy has developed a “Distributed Intelligence Platform (DIP)”. It is equivalent to an Internet of Things (IoT) platform for the utility. The core of this reference architecture is an open API field message bus, which communicates with operations technology devices and systems in the distribution system, including legacy systems. The architecture enables peer-to-peer device communications at the “edges” of the distribution system, thus providing lower latency functionality. As part of its “Coalition of the Willing” program, Duke Energy has successfully tested the architecture’s functionality for the following smart grid use cases: solar smoothing, community energy storage, and voltage management. This case study presentation describes the DIP architecture, provides some use case results, and offers some interoperability “lessons learned” from the program to date.