Microgrid Building block for Smart Cities



Similar documents
March ComEd Grid Modernization

ComEd Grid Modernization

ComEd Grid Renewal Terence R. Donnelly

Energy Systems Integration

CERTS Microgrid Research and Lessons Learned

Philadelphia Navy Yard Microgrid Modernization. Will Agate LEED AP Senior Vice President Philadelphia Industrial Development Corporation (PIDC)

Microgrid Technology: Enabling Energy Reliability and Security Opportunities in Campus, Commercial & Industrial Communities

Strategic Microgrid Development for Maximum Value. Allen Freifeld SVP, Law & Public Policy Viridity Energy

Executive Summary. Microgrids as a Grid Resiliency Strategy: A Recommendation to Portland General Electric and Other Interested Parties

Coordinated and Optimized Control of Distributed Generation Integration

Creating a Resilient Energy Network of Net Zero Buildings

Office of Electricity Delivery & Energy Reliability. US DOE Microgrid R&D Program

Andres Carvallo CMG Founder & CEO Co-Author of The Advanced Smart Grid Former Austin Energy CIO ( )

Operation and Control Microgrid and Distributed Generation. Mohammad Shahidehpour Illinois Institute of Technology

Overview of Long Island Electric Service Territory

Preparing for Distributed Energy Resources

The Future of Electricity Distribution. Emerging Trends in Sustainable Communities

Totally Integrated Power SIESTORAGE. The modular energy storage system for a reliable power supply.

Infrastructure for Adapting to Climate Change Environmental Law Forum April 10, O Brien & Gere

Modern Power Systems for Smart Energy Society

A vision of sustainable energy future: A multi-energy concept of smart energy systems Central European Student and Young Professionals Congress

Microgrids: Key to Energy Security, Resiliency and Clean Energy. Marita Mirzatuny Project Manager, Smart Power U.S. Climate & Energy EDF

Natural Gas and Electricity Coordination Experiences and Challenges

Smart solutions for fleets of all types & sizes of power generation. Marcus König, E F IE SGS / September 2013

Development of a Conceptual Reference Model for Micro Energy Grid

SIRFN Capability Summary National Renewable Energy Laboratory, Golden, CO, USA

Energy Storage Activities at New York Power Authority

Energy & Environment Market Trends, Smart Technologies, New Fuels, Future Business Models and Growth Opportunities

Renewable and Alternative Energy Outlook

NARUC International Relations Committee Meeting February 5, 2012 Washington, D.C. Jay Godfrey Managing Director, Renewable Energy

Advanced Protection of Distribution Networks with Distributed Generators

SDG&E s - Sustainable Communities Program

ARRA Grant Case Studies SMUD s Smart Grid Program

Microgrid: A new hub in energy infrastructure. Mohammad Shahidehpour Illinois Institute of Technology

2009 Energy Policy. Background

Deep Dive on Microgrid Technologies

METERING BILLING/MDM AMERICA

Trends und Innovationen für ein Energiesystem der Zukunft Prof. Dr. Michael Weinhold, CTO Energy Management Division, Siemens AG Fraunhofer ISE,

MICROGRIDS FOR DATA CENTERS

Smart Grid Overview How the smart grid will give customers the tools to create the new future for electricity use.

ELECTRIC VEHICLES WITH V2G

Collaborative Research and Education in Southeastern US in Emerging Areas of Power Engineering

The State of the Electrical Grid in Washington State. Michael Pesin, PMP, P.E. Seattle City Light

Secure and Scalable Microgrids Enabling Technology and Applications

Queensland Australia Smart Grid Trials

IEEE Smart Grid Series of Standards IEEE 2030 TM (Interoperability) and IEEE 1547 TM (Interconnection) Status. #GridInterop

Challenges to integrate Renewables In the French and European Power System. Michel Béna, SmartGrids Director

Enterprise Approach to OSIsoft PI System

Association of Power Exchange October 2010 Smart Grid in Korea (Jeju smart grid pilot project) Hwang, Bong Hwan

Addressing the U.S. Department of Defense Mission Assurance Concerns and Renewable Energy Mandates

ELECTRIC VEHICLES: THE PORTLAND WAY

Cyber Infrastructure for the Smart Grid

Smart Grid Demonstration Lessons & Opportunities to Turn Data into Value

Energy Storage for Demand Charge Management

Not Just Any Microgrid

Advanced Inverter Overview

PV And Storage: Solutions with Potential

Seize the benefits of green energy and the smart grid

Making Energy Storage Work for The Pacific Northwest

LP-based Mathematical Model for Optimal Microgrid Operation Considering Heat Trade with District Heat System

PG&E s Distribution Resource Plan

ESC Project: INMES Integrated model of the energy system

Energy Storage Systems. New solutions for a new energy environment

Modeling of PV Based Distributed Generator Systems with Diverse Load Patterns

Energy Management in the Greek Islands

Ubiquitous Computing in Business Processes Part V

Solar Panels and the Smart Grid

Smart Storage and Control Electric Water Heaters. Greg Flege, Supervisor, Load Management Midwest Rural Energy Conference March 3, 2011

Delivering Energy Systems Solutions

Impact of Distributed Generation on Voltage Profile in Deregulated Distribution System

The ecar in it s infrastructure smart grid -mobilityof thefuture?

Smart Energy Systems of Tomorrow Smart Grid Pioneers in Austria Strategies, Projects, Pioneer Regions

Net Metering Summary Within Northeast Utilities

ENERGY. CRAIG ZAMUDA, Ph.D. Senior Policy Advisor, Office of Energy Policy and Systems Analysis U.S. Department of Energy U.S.

NIST Coordination and Acceleration of Smart Grid Standards. Tom Nelson National Institute of Standards and Technology 8 December, 2010

Sanjeev Choudhary SunEdison Advanced Solutions

The Smart Grid in 2010

Venteea A Smart Grid demonstrator for the DRES integration on the MV distribution networks.

Transcription:

Microgrid Building block for Smart Cities Shay Bahramirad, Ph.D. Manager of Smart Grid & Technology December 2014

COMED OVERVIEW 1 The service territory covers 11,400 mi 2 in Northern Illinois Serving about 3.8 million (70%) of the customers in Illinois ComEd delivers electricity to 400+ municipalities, including the City of Chicago 23,750 MW all-time system peak (summer 2011) Transmission lines at 138, 345, 765 kv About 5,700 miles of transmission (69-765kV) lines and about 66,000 miles of primary distribution (4-34kV) lines 225 HV, 526 MV distribution substations 5400 Distribution Feeders at 4, 12.5, 34.5 kv

SMART CITY 2 Smart City is a city that monitors and integrates conditions of all of its critical infrastructures for better optimizing its resources, planning its preventive maintenance activities, and monitoring security aspects while maximizing services to its citizens. The Smart City aims at enhancing three focus areas of livability, workability, and sustainability: o Enhanced livability means a better quality of life for city residents by providing access to a comfortable, safe, and healthy lifestyle. o Enhanced workability represents accelerated economic development. o Enhanced sustainability means giving people access to the resources they need without compromising the ability of future generations to meet their own needs.

SMART CITY 3

MICROGRIDS IN SMART CITIES Microgrids are part of the Smart City: Enhanced livability through added resiliency and reliability Enhanced workability through added resiliency and reliability Enhanced sustainability through renewables and reduced transmission and distribution losses -4-

MICROGRIDS IN SMART CITIES Microgrids are building blocks of resilient and sustainable Smart Cities. Microgrids provide an opportunity for Smart Cities to achieve sustainable energy delivery systems. Microgrids can also deliver Smart Cities substantial energy, economic, and environmental benefits. Microgrids utilize variety of generation assets: o Energy can be generated by the local distributed generation (including renewables), while strengthening grid resiliency, and optimizing efficiency. o Combined heat and power (CHP) based generation is a fitting for Smart Cities as it serves both electrical and heating needs of buildings. -5-

DRIVERS FOR MICROGRIDS Electric utilities are facing significant challenges: o Stressed and aging Infrastructure Climate change resulting in increased weather volatility Grid security and resiliency Constrained delivery of gas and power Increasing utilization of natural gas o Increasing customer expectations and segmentation Cleaner, more affordable, more reliable, and secure energy Lower tolerance for outages o Internet of Options Increase in big data driving an increase in customer options Microgrids are a potential solution for utilities facing these challenges. 6

SIMPLIFIED MICROGRID Utility grid Substation Load DG Microgrid is an integrated power delivery system consisting of interconnected loads and distributed energy resources (DERs) that can operate in: grid-connected mode, stand-alone (islanded) mode, ride-through between the above modes. Operates within clearly defined boundaries Appears as a single controllable entity w.r.t. to the grid Cluster DG and Load Definition: DOE Microgrid Exchange Group 7

COMMUNITY MICROGRID Evaluation of a potential project could cluster two microgrids in a community ComEd is evaluating Chicago s Bronzeville neighborhood for implementation of a potential microgrid The potential location is adjacent to Illinois Institute of Technology (IIT) which has a microgrid Would create the first clustered microgrid in the world. Location is a great cross section of the City of Chicago, with a diverse set of critical loads High tech manufacturing Educational facilities Police headquarters Healthcare and senior residences Other private residences -8-

MICROGRID CONTROLLER U.S. Department of Energy announced $8 Million in grant funding to improve grid resiliency DOE awarded approximately $1.2 million to ComEd and it s partners to develop and test a commercial-grade microgrid controller capable of managing two or more interconnected microgrids ComEd s project includes a diverse mix of facilities and critical loads, including police and fire department headquarters, major transportation infrastructure, healthcare facilities for seniors, and private residences 9

MICROGRID FUTURE APPLICATIONS Future microgrid deployments will focus on locations with critical infrastructure, such as police stations, hospitals, and airports. Clustering multiple microgrids would improve reliability, resiliency, and power quality. Other potential applications could be business districts, universities, and park districts. Premium service customer willing to pay more for improved reliability/resiliency -10-

MICROGRID FUTURE APPLICATIONS Hybrid microgrid and nanogrid systems: o Combine AC and DC architecture o Robust integration of DC based Distributed Energy Resources (DERs) PV, Fuel Cells, Battery Energy Storage Systems o Improved building efficiency through reduced conversion losses up to 20% for commercial buildings. -11-