the pitt center for energy eic facilities up-date and the
TRANSCRIPT
The Pitt Center for Energy EIC Facilities Up-date and the Energy GRID Institute
November, 2016
Dr. Gregory Reed Director, Pitt Center for Energy and the GRID Institute Director, Electric Power Systems Laboratory Professor, Electrical & Computer Engineering Department Swanson School of Engineering – University of Pittsburgh
The Pitt Center for Energy
• University-wide Research Center • ~$30+ Million R&D portfolio
• ~100 Faculty and ~250-300 Graduate Student Researchers
• Dedicated to improving energy technology development and implementation, including:
• Energy and electric power delivery, reliability, and security;
• Advanced materials for energy-related applications;
• Clean energy development and integration;
• Direct energy conversion and recovery;
• Carbon management and utilization;
• Energy efficiency and sustainability;
• Unconventional gas resources; and
• Energy workforce development
Pitt Center for Energy Off-Campus Research Facilities
Laboratory/Facilities Plans for the
Pittsburgh Energy Innovation Center (EIC)
Establishing “The Energy GRID Institute”
Pittsburgh Energy Innovation Center
• Old Connolly Trade School (Bedford Avenue) – aka, the Energy Innovation Center – located adjacent to downtown Pittsburgh, across the street from the former Mellon Arena site
• Built in 1930 and closed as a school in 2004.
• Consists of a 5-story tower, with a 2-story high bay (former technical shop extension), gym, and aud. - approx. 200,000 sq. ft. in total
• Building under renovation by Pittsburgh Gateways - non-profit entity, support from private and public funding
• Pitt Center for Energy Labs/Facilities: – over 20,000 sq. ft. of total space, with plans to expand – construction underway as of Dec. 2015
Pittsburgh Energy Innovation Center
Energy Innovation Center - Location
EIC
Downtown
Pittsburgh
Consol
Center
(Pittsburgh
Penguins
Arena)
56-Acre
Develop
-ment
Site
(former
Mellon
Arena)
Lower
Hill
District
The Energy GRID Institute (est. July 2016)
University research & development; and independent industry/community activities
– Focus will be on the ELECTRIC UTILITY INDUSTRY
– Key Facility/Lab: High-voltage and high-capacity capability and multiple use facility
• Plan is for 15 kV-ac, 5 MVA and 1.5 kV-dc, 1 MVA capacity
• Ring-Bus configuration and dedicated DC area
• AC and DC Micro-Grid/Micro-Energy Environments at the Utility Distribution Level
• Resource, Distributed Energy Generation, and Load Integration
The Energy GRID Institute Laboratories
• Electric Power Technologies Lab – Dr. Gregory Reed – ECE – High Voltage/Capacity AC and DC Grid Facility
• Energy Storage Technologies Lab – Dr. Prashant Kumta – BioE, ChemE
– Nano-Materials for Conversion/Storage
• High-Temperature Corrosion Testing Lab – Dr. Brian Gleeson – MEMS – Current facility at Iowa State University
• Energy-Related University Incubator Space – Dr. Mark Redfern – University
– Lab Spaces for Start-up/Commercialization Activities
University of Pittsburgh, Center for Energy/ GRID Institute
Energy Innovation Center – Facilities Layout
Energy Storage
Technology Lab
3,040 ft2
High Temp.
Corrosion Lab
600 ft2
Administration
3,760 ft2
Electric Power
Technology Lab
5,100 ft2
Pitt
Incubator
Labs
2,400 ft2
EP
TL
Expansio
n
Are
a
The Energy GRID Institute
Vision and Community Engagement
Vision – Energy GRID Institute
The Challenge: 1- Legacy-based electrical power and energy infrastructure in U.S./OECD nations. 2- Dynamic period of change and uncertainty across the utility industry. 3- Proliferation and rapid growth of distributed and renewable energy resources;
microgrids and related developments (DC, power electronics); increased consumer participation; and many other disruptive technological and regulatory paradigms that are affecting utility planning, design, operations, and policy.
The Goal: A modern reliable grid, innovative customer solutions, and clean energy technology.
The Vision: 1- Create a national/international consortium focused on the electric utility industry. 2- Evaluate and assess both major industry-wide and individual utility issues. 3- Work in collaboration with various partners towards the development,
demonstration, and first-generation deployment of solutions across a broad area of grid technologies, systems, designs, operations, and regulation, as well as addressing market forces and business considerations.
Vision – Energy GRID Institute
Background: Pitt Center for Energy and the Swanson School of Engineering investing over $9-million towards renovations for establishment of new off-campus facilities and laboratories at the Pittsburgh Energy Innovation Center (EIC).
Includes an extensive high-power/high-capacity AC and DC networked Electric Power Technologies Lab, supported by various industry and community constituents through in-kind contributions and financial assistance. Overview: An expanded vision for this facility, beyond initial plans, is to establishing the “Energy GRID Institute” for energy and power grid related research, development, demonstration, and deployment – creating value-added impact and national/international prominence.
A world-class enterprise with comprehensive infrastructure and advanced capabilities for research, development, commercialization and related activities, in the form of expanded plans for the EIC labs and facilities, is instrumental in realizing this vision and creating opportunities the partner organizations.
Vision – Energy GRID Institute
Impact and Need:
Expand upon and attract significant industry participation and corporate engagement at the EIC, to work in close collaboration and partnership with University programs, faculty researchers and graduate students, and other supporting academic personnel. Regional impact will be to leverage activities towards economic growth and job creation, as well as enhancing incubator, start-up, and technology commercialization potential. National impact will be an opportunity to collectively move industry forward in key areas of energy and power grid related activities. Comprehensive strategy requires large-scale funding from both public and private entities, including opportunities to partner with federal, state, and local government; regional, national, and global industry organizations; the foundation community; and the University.
Vision – Energy GRID Institute
Community Impact:
• The EIC and the GRID Institute will be a community anchor for grid modernization activities; including community development, investment, and diverse workforce training.
• Cross-section of community engagement and public/private partnerships; co-location of industry and community partners.
• District Energy program will spur regional economic development and increase resiliency across Pittsburgh’s most underserved areas/neighborhoods
• Significant corporate/community participation and investment from local, regional, and national organizations
Pitt EPTL
Industry and Community Engagement – initial discussions and significant interest in participation/support:
- Eaton, Electrical Sector* - Duquesne Light Co.*
- Universal Electric* - Emerson Process Management*
- Dominion VP* - Mitsubishi Electric
- ANSYS* - FirstEnergy Corp.
- EPRI (Electric Power Res. Inst.) - Siemens Energy and Industry
- OPAL-RT* - Sargent Electric*
- Pitt-Ohio Express* - RK Mellon and HL Hillman Fdns.*
- U.S. Dept. of Energy - Quanta Technologies
- ABB - S&C Electric
- Aquion Energy - GE-Alstom / GE Power Conversion
- Concurrent Technologies - Robert Bosch
- Hysosung Industries - OSISoft
- Schweitzer Engineering Labs (SEL - RTDS
- DNV GL – KEMA Laboratories - EMerge DC Alliance
* Initial partners/committed support
The Pitt Energy GRID Institute
Value Proposition for Partners and Users:
- Collaborative R&D programs
- Utility investigations and testing
- Technology development, prototyping, and demonstration
- Commercialization opportunities
- Joint utility-vendor-government collaborations
- Various levels and constructs of partnerships
- Fee-for-service and contract R&D options
- Industry Standards Development
- Independent testing/certification and third-party operations
- Student development and access
- Education and training
The Energy GRID Institute
Electric Power Technologies Lab – Plan
Power
Plants
Power
Plants
Transmission
Distributio
n Industry Transportation
Commercial Residential
Power
Plants
Transmission
Distribution
Transportation Industry
Residential
Large-Scale
Renewables
(all types)
DER, Storage, μ-Grid, DC DER, Storage, μ-Grid, DC
Communications,
Control, Security,
Power Conversion,
‘N’-Way Interface,
Automation, etc.
DER, EV, Storage, μ-Grid, DC DER, EV, Storage, DC
Commercial
Communications,
Control, Security,
Power Conversion,
‘N’-Way Interface,
Automation, etc.
The 21st Century Grid – RD&D is Imperative
Electric Power Technologies Laboratory
Electrical One-Line Diagram
23 kV Bus – substation primary bus
15 kV Bus – unregulated
23 kV – 15 kV 5 MVAVFI + Fuse Link
3 PH 15 kV Bus – regulated
15 kV – 5 kV 1 MVAVFI+ Fuse Link
15 kV Bus Indoor
MV INDOOR AND OUTDOOR AREAS
5 kV Bus Indoor
R
RBB
ShuntCap
Bank
F
S S
15kV /480V
1 MVA
3x, 1Ø15kV /120-240V
25 kVA
F
15kV /480V
225 kVA
3x, 1Ø15kV /120-240V
10 kVA
3x, 1Ø 15kV /120-240V
10 kVA
S S
AC
DC
1
2
3
4 5 6 7
A
A Amp Guard Fused VFI
R Recloser
S Sectionalizer
A
5 kV Return
480 Vac / 1000 Vdc
1 MVA
F Fused Cutouts
D Air Switch/Disconnect
B MV Breaker
60A Resi Panels 1/2/31-Phase 240-120V
60A Resi Panels 4/5/61-Phase 240-120V
200A Panel (Resi)3-Phase – 208/120V
MCCReturnFrom
LV motors
4160V/480V
1 MVA
3x, 1Ø15kV /277-480V
75 kVA
500 HP
A
5 kV Aux Loads
F F
R R
MV OUTDOOR
AREA
B
AC
AC
SoftStarter
500 HP
B A
8
LV AC BUSES LV DC BUSES
Programmable and Aux
1 kVdc Loads
1kVdc Switchboard
Programmable and Aux 1 kVdc Loads
Programmable and Aux 1 kVdc Loads
3
380 Vdc Panelboard8
DC
DC
PV Connection Transfer Switch
Aux Connection for PV Converter
AC or DC InterfaceTransfer Switch
To Inverter on Bus 4 Programmable and Aux
380 Vdc Loads
Load Types:
- Programmable Loads- Battery Storage- Motors & Drives- Load banks- Small Wind Turbines
Load Types:
- Programmable Loads- Battery Storage- Motors & Drives- Lighting- Load Banks- Small Wind Turbines- 24V and 48V DC Buses
480 V Switchboard1
AC
DC
DC
AC
Micro-wind generation
AC
AC
MAC
DC
3
480 V Panelboard
AC
AC
M
4
AC
DC
From PV by (3)
480 V Panelboard
AC
AC
M
6
G
Microturbine (or CHP system)
480 Vac / 1000 Vdc
1 MVA
DC
DCD
1000VPanelboard
1000V Panelboard
100 HP(x2)
AC
AC
M
50 HP 75 HP
AC
AC
M
50 HP 75 HP
Electric Power Technologies Lab: One-Line Diagram of Grid Infrastructure Plan
(AC network: 23-kV/15-kV/4.16-kV/480-V > system)
(DC network – 1.5-kV/380-V > system)
Proposed EPTL Layout
Power Distribution Areas
MV Grid Lab: Reconfigurable lab for
traditional or microgrid projects. Designed
using utility-grade distribution equipment.
Test Lab: Isolated testing facility for safe
testing of industry technologies, and
EPTML research projects.
AC and DC: Flexible power architecture
capabilities – AC, DC, and hybrid systems
Specialty Areas
Rapid Prototyping: Advanced machine
shop for development of professional grade
components and projects.
SCADA Center: Automation, metering,
and control for distribution network.
Relaying and Controls: Protective relaying
technologies, Phasor-measurement, and
advanced control
RTDS Center: Real-Time Digital
Simulator and hardware in the loop
capabilities – research and testing on
industry leading equipment.
Laboratory Ratings and Features
15 kV-ac, 5 MVA and 1 kV-dc, 1 MVA capacity
Micro-Grid/Micro-Energy Environment at
Electric Utility Distribution Level
Distributed Energy Resource and Load Integration
Renewable Technologies (Solar PV, Wind, etc.)
Energy Storage, Electric Vehicle-2-Grid
Distribution Feeder Infrastructure
Real Time Digital Simulator (RTDS)
SCADA and Systems Operations
Protective Relaying and Substation Automation
Advanced Control and Communications, PMU
Modeling, Simulation, and Analysis
FACTS and HVDC Control Systems
Power Electronics Converters (and other power
technologies development, prototyping, and
testing -- e.g., IEEE 1547 certification)
DC standards development (IEC SG 4)
Integration of feeder analytics
Technology testing and certification
Electric Power Technologies Laboratory
Layout Plan, Features, and Capabilities
EP
TL
Expan
sio
n
Are
a
Electric Power Technologies Laboratory
Outside High Voltage Equipment
Modular Integrated Transportable Substation
(MITS)
Outdoor Location of HV Interconnection – MITS
23 kV Bus – substation primary bus
15 kV Bus – unregulated
23 kV – 15 kV 5 MVAVFI + Fuse Link
3 PH 15 kV Bus – regulated
R R
Electrical One-Line of MITS
View from Administration Hallway View from Loading Dock Hallway
Electric Power Technologies Laboratory
Overhead 3-D Lab Rendering
Medium Voltage Area
View from Lab Entrance
View from Mezzanine
Electric Power Technologies Laboratory
Medium Voltage AC and AC/DC Converter Area
Testing and Motor Areas
View from Medium Voltage Area into Testing Area
View from Testing Area into Medium Voltage Area
Electric Power Technologies Laboratory
Low Voltage AC and DC Areas, Motors/Loads, and Test Floor
Laboratory Monitoring Area
(Isolation while Testing)
View into Testing Area and Medium Voltage Area
Electric Power Technologies Laboratory
Test Monitoring and Control Area
Electric Power Technologies Laboratory
RTDS, EMS/SCADA, and Operations Area
Real Time Digital Simulation (RTDS),
EMS/SCADA, System Operations and
Relaying/Automation/PMU Area
View from Entrance into Lab
View from Prototype Area Door Entrance
Contact Information
Dr. Gregory Reed
Director, University Center for Energy and the GRID Insitute Director, Electric Power Systems Laboratory Professor, Electrical & Computer Engineering Department
SWANSON School of Engineering University of Pittsburgh __________________________________
Tele: 412-383-9862 Cell: 412-389-7503 E-mail: [email protected] Web: http://www.engineering.pitt.edu/Gregory_Reed/ http://www.engineering.pitt.edu/cfe/ http://www.engineering.pitt.edu/power