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IEEE Smart Grid Activities

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Title: IEEE Smart Grid Activities


1
IEEE Smart Grid Activities
Global Standards Collaboration (GSC) 14
DOCUMENT GSC14-PLEN-077
FOR Presentation - NNT
SOURCE IEEE
AGENDA ITEM 7.1
CONTACT(S) w.c.adams_at_ieee.org
  • Dr. W. Charlton Adams
  • President,
  • IEEE Standards Association

2
Smart Grid Standardization
3
Smart Grid Definitions
  • An automated, widely distributed energy delivery
    network characterized by a two-way flow of
    electricity and information, capable of
    monitoring and responding to changes in
    everything from power plants to customer
    preferences to individual appliances.
  • An electricity delivery system (from point of
    generation to point of consumption) integrated
    with communications and information technology.

4
IEEEs Role in Smart Grid
  • IEEE Utilizes the global expertise
    and synergy of the IEEE's 44 societies
    and technical councils in technical
    development, education,
    publication, and standards
    community
  • IEEE-SA Baseline IEEE standards in diverse fields
    such as power, communications, digital
    information management controls technology,
    networking, security, reliability assessment,
    interconnection of distributed resources
    including renewable energy sources to the grid,
    sensors, electric metering, broadband over power
    line, and systems engineering uniquely position
    the IEEE-SA to integrate these technologies into
    a forward-looking platform

5
44 IEEE Technical Societies/Councils
  • Instrumentation Measurement
  • Lasers Electro-Optics
  • Magnetics
  • Microwave Theory Techniques
  • Nanotechnology Council
  • Nuclear Plasma Sciences
  • Oceanic Engineering
  • Power Electronics
  • Power Engineering
  • Product Safety Engineering
  • Professional Communication
  • Reliability
  • Robotics Automation
  • Sensors Council
  • Signal Processing
  • Social Implications of Technology
  • Solid-State Circuits
  • Systems Council
  • Systems, Man, Cybernetics
  • Aerospace Electronic Systems
  • Antennas Propagation
  • Broadcast Technology
  • Circuits Systems
  • Communications
  • Components, Packaging,
  • Manufacturing Technology
  • Computer
  • Computational Intelligence
  • Consumer Electronics
  • Control Systems
  • Council on Electronic Design Automation
  • Council on Superconductivity
  • Dielectrics Electrical Insulation
  • Education
  • Electromagnetic Compatibility
  • Electron Devices
  • Engineering in Medicine Biology
  • Geosciences Remote Sensing

6
Interoperability - Distributed Energy Resources
(DER) on Transmission and Distribution
  • Systems Approach
  • Interconnection Interfaces
  • Technical Standards Advanced Technologies
  • Systems Integration

Bulk Power
Substations
sensors
(Also, larger DER on transmission)
Distribution System
Load Management
Transmission System
sensors
sensors
Communications Information Flow, Data
Management, Monitor Control
DER Interconnections
Combined Heat Power
sensors
7
Smart Grid Project Background
  • December 2008 IEEE-SA initiated the development
    of a project strategy in anticipation of the NIST
    recommendations in 2009
  • March 2009 IEEE-SA initiates P2030 activity
  • Chair Richard DeBlasio
  • Vice Chair Tom Prevost
  • Secretary Tom Basso
  • May 2009 NIST Initial Smart Grid
    Interoperability Standards Framework, Release 1.0

8
NIST Initial Smart Grid Interoperability
Standards Framework
  • AMI-SEC System Security Requirements Advanced
    metering infrastructure (AMI) and Smart Grid
    end-to-end security
  • ANSI C12.19/MC1219Revenue metering information
    model
  • BAC net ANSI ASHRAE 135-2008/ISO 16484-5Building
    automation
  • DNP3 Substation and feeder device automation
  • IEC 60870-6 / TASE.2Inter-control center
    communications
  • IEC 61850Substation automation and protection
  • IEC 61968/61970 Application level energy
    management system interfaces
  • IEC 62351 Parts 1-8 Information security for
    power system control operations
  • IEEE C37.118 Phasor measurement unit (PMU)
    communications
  • IEEE 1547 Physical and electrical
    interconnections between utility and distributed
    generation (DG)
  • IEEE 1686-2007 Security for intelligent
    electronic devices (IEDs)
  • NERC CIP 002-009Cyber security standards for the
    bulk power system
  • NIST Special Publication (SP) 800-53,
  • NIST SP 800-82Cyber security standards and
    guidelines for federal information systems,
    including those for the bulk power system
  • Open Automated Demand Response (Open ADR) Price
    responsive and direct load control
  • OpenHANHome Area Network device communication,
    measurement, and control
  • ZigBee/HomePlug Smart Energy Profile Home Area
    Network (HAN) Device Communications and
    Information Model

9
Smart Grid Project Background (continued)
  • June 2009 First P2030 meeting with more than 300
    attendees in person and remote access
  • 2009 IEEE with P2030 positioned to address
    member and NIST recommendations

10
IEEE P2030 Guide to Interoperability Body
of Smart Grid
Standards
Interoperability
Energy Information Communications
Energy Information Communications
Bridge of Discovery
11
IEEE P2030, Draft Guide for Smart Grid
Interoperability of Energy Technology and
Information Technology Operation with the
Electric Power System (EPS), and End-Use
Applications and Loads
  • Scope and Purpose
  • Scope This document provides guidelines for
    smart grid interoperability. This guide provides
    a knowledge base addressing terminology,
    characteristics, functional performance and
    evaluation criteria, and the application of
    engineering principles for smart grid
    interoperability of the electric power system
    with end use applications and loads. The guide
    discusses alternate approaches to good practices
    for the smart grid.
  • Purpose This standard provides guidelines in
    understanding and defining smart grid
    interoperability of the electric power system
    with end-use applications and loads. Integration
    of energy technology and information and
    communications technology is necessary to achieve
    seamless operation for electric generation,
    delivery, and end-use benefits to permit two way
    power flow with communication and control.
    Interconnection and intra-facing frameworks and
    strategies with design definitions are addressed
    in this standard, providing guidance in expanding
    the current knowledge base. This expanded
    knowledge base is needed as a key element in grid
    architectural designs and operation to promote a
    more reliable and flexible electric power system.
  • http//grouper.ieee.org/groups/scc21/

12
IEEE SCC21 P2030 Meeting
  • First meeting June 3-5 hosted by Intel
  • Over 300 in attendance (in-person and remote
    access)
  • Discussion, level setting, planning for future
    work. 
  • No motions and voting at the meeting
  • Three Task Force breakout sessions
  • Power Engineering Technology Task Force
  • Leader Sam Sciacca, Microsol, Inc. and Tom
    Prevost, Weidman Diagnostic Solutions
  • Information Technology Task Force
  • Leader Bob Grow, Intel
  • Communications Technology Task Force
  • Leader Stefano Galli, Panasonic RD Co of
    America/Bob Heile, Chair-IEEE 802.15 and Zigbee
    Alliance
  • Task Forces to address
  • Smart Grid Definitions, Topologies,
    Interoperability, end-use, interfaces, and
    integration, etc.)
  • Systems Approach focused on Functional and
    Performance Attributes including Test and
    Verification methods

13
IEEE SCC21 P2030 Meeting
  • Results A lot of brainstorming and from that,
    some general conclusions e.g.
  • IT had good support for starting with the NIST
    Design Expert Working Groups as initial
    demarcation points for separation of utility
    function from customers, generation facilities
    (including home generation), etc. 
  • There was general agreement that significant
    liaison between Task Forces will be required,
    e.g.
  • The Power Task Force will be requesting
    capabilities and proposing assumptions for the
    capabilities to be delivered by the
    Communications and IT TFs
  • All 3 Task Forces will be meeting either via
    teleconference or in-person prior to the next
    P2030 meeting
  • October timeframe, possibly hosted by IBM
  • Overall a very positive and collaborative first
    meeting

14
Task Force 1 Power Engineering Technology
  • TF-1 will focus on functional requirements of
    interoperability
  • 6 Work Groups
  • Energy Sources
  • Transmission
  • Transmission Substation
  • Distribution
  • Load Side (Working Title)
  • Cybersecurity
  • Outreach for input/participation
  • Collaboration with TF-2 and TF-3
  • Contact Sam Sciacca samuels_at_microsol.com
  • Tom Prevost tom.prevost_at_wicor.com

15
Task Force 2 Information Technology
  • Privacy support different ownership of data
    (aggregation enhances, high granularity
    compromises)
  • Security intrusion prevention and detection,
    focused on demarcs
  • Data Integrity undetected error requirements,
    communications and storage
  • Safety human (support for overides), device and
    grid
  • Customer requires multi-manager (utility and
    customer) for both status and control
  • Begin with interfaces to define interoperability
    demarcation points
  • Also will consider intrafaces (within a cloud)
  • Focus on object-oriented device/function
    definitions
  • Accommodate dumb devices (aggregated)
  • Data structures, definitions and formats
  • Contact Bob Grow b.grow_at_ieee.org

16
Task Force 3 Communications Technology
  • Task Forces 1 2
  • Define information attributes
  • (Where, When, Who, What)

A
B
PHY/MAC
  • Task Force 3
  • Addresses communications interoperability between
    devices within SmartGrid
  • Describe layers above PHY/MAC and below Layer 6
  • Neutral to PHY/MAC standards used in the Smart
    Grid
  • PHY/MAC standards are being developed by other
    groups
  • Interoperability of electric power systems with
    end use applications and loads should be
    maintained regardless of the PHY/MAC

Contact Stefano Galli sgalli_at_research.panas
onic.com Bob Heile
b.heile_at_ieee.org
17
Observations
  • Smart grid Standards will extend across the
    entire grid (i.e., need interoperability
    standards (top down) and building block standards
    (bottom up).
  • Smart grid Equipment Standards will be needed to
    handle information data management,
    communications and control.
  • Flexible smart grid system Interoperability
    Design and operational Standards will allow near
    term and long term smart grid evolution.
  • Development of a body of Interoperability Smart
    grid Standards need to be initiated now.

18
Global Commitment
  • Smart Grid standardization will be a broad global
    collaborative effort across multiple communities
  • Standards development organizations
  • Government organizations
  • Private sector

19
For more information on IEEEs 2030
Project
  • http//grouper.ieee.org/groups/scc21/2030/2030_ind
    ex.html
  • ChairRichard DeBlasio (dick_deblasio_at_nrel.gov)Na
    tional Renewable Energy Laboratory 303 275 4333
    (phone)SecretaryThomas S. Basso
    (thomas_basso_at_nrel.gov)National Renewable Energy
    Laboratory303 275 3753 (phone)
  • Standards LiaisonBill Ash (w.ash_at_ieee.org)IEEE7
    32 465 5828 (phone)
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