Title: Northeast Combined Heat and Power Road Mapping Workshop
1Northeast Combined Heat and PowerRoad Mapping
Workshop March 30, 2004
2CHP in the Northeast Building on Success
97 GW of CHP by 2009
3NECHPI Mission Statement
- To lead the Region in encouraging the
implementation of CHP technologies - To drive CHP roadmap action items for the
Northeast Region in support of DOEs and EPAs
goal of doubling CHP use by 2010 - To provide for coordination and communication
among the various stakeholder organizations in
the region, including federal agencies, state
agencies, utilities, project developers,
equipment manufacturers, CHP users, universities,
research institutions, and public interest
groups.
4Northeast Application Center Mission Statement
- To provide application assistance, technology
information, and educational support necessary
to - Reduce perceived risks by
- Architects and engineering companies
- Energy services companies
- Building owners
- Foster these systems as a viable
- Technical option
- Financial option
- Environmental option
- Energy efficiency option
5Special Thanks
- For support of the NECHPI and the NAC
- Massachusetts Technology Collaborative
- U.S. DOE
- NYSERDA
- UMass Amherst
- Pace University Energy Project
- Gas Technology Institute
6Special Thanks
- For support of the NE Road Mapping Workshop
- Massachusetts Technology Collaborative
- U.S. DOE
- U.S. EPA
- Energetics
- Organizing Committee
- Reception sponsors
7NE CHP Initiative and Application Center A Bit
of Background
- Suzanne Watson
- Northeast States for Coordinated Air Use
Management (NESCAUM) - March 30th, 2004
8Began with DOEs challenge to double CHP by
2010
- Challenge issued Dec., 1998
- Visioning Workshop held June, 1999
- Compact signing between CHP industry and DOE
happened in Feb., 2000 - Creation of USCHPA a private industry
collaborative - First annual national CHP roadmap workshop held
in Oct., 2000 in Baltimore 5th one scheduled
for Sept. 20th 21st in Austin, Texas - Creation of CHP/DG specific resource programs at
EPA and DOE
9Regional/State Efforts
- 18 regional and state level workshops held from
1999 2001 across the US - 2nd annual national CHP workshop held in Oct.,
2001 - Action item that came from this workshop was
recognition of the need for more regionally
focused work - DOE funded a CHP application center in MW at
the University of Illinois in addition a small
working group formed a MW CHP Initiative to
address CHP policy and regulatory-related issues
in addition to technology-related ones - There are now seven regional CHP initiatives
established across the US
10NE CHP Initiative
- Began with two CHP workshops both held in 2000
one in New England (ME, NH, MA, and VT) and one
including NY, NJ, PA, and CT. Work plans for both
at uschpa.org - Official kick off meeting of the NE Initiative
held Spring of 2002 in Westborough, MA. - Sponsored by Boston DOE Regional Office
- Regular meetings held every other month after
that with growing attendance at each one - Development of a NE regional web site found at
northeastchp.org - Recently awarded funding to establish the NE CHP
Application Center.
11Roadmap Actions for NE CHP Initiative Include
- 1. Develop CHP Markets and Applications
- 2. Eliminate Regulatory and institutional
Barriers - 3. Raise CHP Awareness
- 4. Facilitate and Coordinate State and Federal
Legislative Activities - 5. Implementation and Reporting
12US CHP Policy Day
- May 10th 12th in Washington DC at Hotel
Washington - Legislative and Regulatory Updates Hill visits
and Hill reception with Congressional Members
CHP Champion Awards - WADE and EPA CHP Partners Meetings
- Registration and agenda found at uschpa.org
13Resources
- NE CHPI northeastchp.org
- USCHPA uschpa.org
- DOE eere.energy.gov/de/
- EPA epa.gov/chp/
- NE CHP Application Center University of
Massachusetts Amherst, Pace University and
NYSERDA Partnership
14An Update on the Northeast Regional CHP
Application Center
- Lawrence Ambs, University of Massachusetts
Amherst - Fred Zalcman, Pace University
15Mission
Accelerate the market penetration of energy
efficient and environmentally superior CHP in
order to improve the environment, raise
productivity in buildings and industry, lower
regional energy costs, strengthen energy
security, enhance consumer choice and reduce
price risks for end-users.
16Northeast Application CenterWorking Together in
the Northeast
US Department of Energy Distributed Energy
Resources
17Pacific Southwest
Intermountain
18Goals
- Establish a One-Stop Technology and Policy
Clearinghouse - Promote Standardized and Easily Replicable CHP
Solutions Within Target Markets - Guide Market Participants To Select Projects that
will Improve the Technical, Economic and
Environmental Performance of CHP
19Goals
- Create Central Repository of CHP Operating
History and Validated Performance Metrics to
Educate Customers and Inform Policymakers - Educate Policymakers so that they can Formulate
Solutions to Overcome Market and Regulatory
Barriers to Accelerate CHP Penetration - Promote Opportunities for Grid Connected CHP
Systems that meet Load Response and Program
Objectives
20State Priority Areas
- Agricultural Applications
- Commercial High-Rise
- Institutional
- Biomass/biofuels CHP
- Landfill Methane
- Lumber and Wood Products
- Fuel Cell CHP
- District Energy
- Food processing
21Targeted Activities
- Market research
- Education and outreach
- Application assistance
- Interface with national programs and initiatives
22Education and Outreach
- Host website
- Conduct training workshops
- Organize major regional CHP conference
- Provide regulatory assistance
- Foster regional CHP coalitions and partnerships
23Identification and Facilitation of High Impact
Projects
- Provide technical assistance to facility owners,
equipment manufacturers, architects, engineers
and others - Screen Projects to determine the most suitable
technology for a given application - Identify process changes and load shaping
opportunities that could expand deployment of CHP
in industrial and building settings - Develop CHP Best Practices
24CHP Best Practices
- Case studies - provide concrete evidence of CHP
successes within various target market segments - Best practice packages promote standardized and
easily replicable CHP solutions within target
markets - Installations Database to track CHP
achievements and to develop strategies and
procedures for penetrating target market segments
25Contacts
- Tom Bourgeois
- NAC Co-Director for Education and Outreach
- (914) 422-4013 (voice)
- tbourgeois_at_law.pace.edu
-
- Beka Kosanovic
- NAC Co-Director for Technical Assistance
- (413) 545-0684 (voice)
- kosanovi_at_ecs.umass.edu
-
26National Goal 97 GW of CHP by 2010
Source Energy and Environmental Analysis,
Washington DC
27Progress to Date
Source Energy and Environmental Analysis,
Washington DC
28Of this total, 20,700 MW is controlled by
unregulated, industrial players
Note this dataset excludes all generators
owned/controlled by SIC code 22, which includes
both regulated and unregulated gas, electric and
steam utilities. Data shown is known to be an
undercount, but not known to what degree.
29and 1,397 MW are controlled by commercial and
institutional entities.
Note this dataset excludes all generators
owned/controlled by SIC code 22, which includes
both regulated and unregulated gas, electric and
steam utilities. Data shown is known to be an
undercount, but not known to what degree.
30The majority of these non-utility installations
are lt1,500 kW.
Median Generator 1,350 kW
Note this dataset excludes all generators
owned/controlled by SIC code 22, which includes
both regulated and unregulated gas, electric and
steam utilities. Data shown is known to be an
undercount, but not known to what degree.
31MW distribution of Northeast CHP, by industry
Label is of total US MW by industry
32Unit distribution of Northeast CHP, by industry
Label is of total US installations by industry
33Concluding facts about Northeast CHP population
- CHP in the northeast tends to be smaller and more
numerous than the national average - 6.3 of the known non-utility CHP MW are in the
northeast, but this comprises 19 of the known
installations. - Driven largely by NY State
- The Northeast has more experience connecting
non-utility CHP to the grid than central power
plants - 185 central power plants in the NE, 341 end-user
sited CHP plants (526 total plants, incl.
utility-owned) - The reliability of the Northeast power grid is
dependent on CHP - 14 of the total power consumed in the NE is
generated in CHP plants. - The reliability of the Northeast power grid is
dependent on the actions of unregulated,
decentralized market participants - Non-utility owned CHP contributes 1,400 MW of
power generation to the northeast power system
(22,000 MW nationwide)
34Northeast Regional CHP Roadmap
WorkshopNorthampton, MAMarch 30,
2004Regulatory PoliciesTim
Danielstwdaniels44_at_hotmail.com202-905-95226
35Critical Areas for Action
- Distribution Rates
- Electric (standby, backup)
- Gas (DG, interruptible)
- Steam (district heating)
- Environmental
- Emissions Permitting
- Credit Allocations (NOx, SO2, GHGs)
- Siting
- Interconnection (electric, gas)
- Permitting (fire, construction, etc)
- Resource Planning
- Utility (distribution)
- ISO/RTO (transmission)
36Critical Areas for Action
- Direct Incentives
- Direct Payments (system benefits fund)
- Low Interest Financing
- Tax (sales exemption, investment credit,
production credit, depreciation rate) - Technical Assistance
- Indirect Incentives
- Aligning Utility Incentives (performance-based
ROR) - Political Support
- Wholesale Markets
- Capacity
- Demand Response
- Other
37Recent Actions in Northeast
38Four Basic Questions
- How do we create market rules to reflect an
equitable balance of the societal costs and
benefits of CHP? - How do we promote open and transparent markets
such that end-users are made aware of (temporal,
locational, environmental) price signals that
enable them to become informed and engaged market
participants? - The economists public policy question In
regulated (imperfect) markets, how do we best
align incentives for market participants with the
goals of society? - How do we change the anachronistic mind-sets of
market regulators and participants to match
todays technologies and societal needs?
39Air Permitting Regulation for Smaller-Sized
GeneratorsTom BourgeoisDirector of
ResearchPace Univ. Energy Project
40Policy Issues
- OBJECTIVE How can the air permitting process
be streamlined in a manner that -
- protects the integrity and rigor of the process,
- and
- (b) minimizes additional transaction costs and
time burdens for small projects
41Existing Small Generator RulemakingsRAP MODEL
RULE Stakeholder Process Sponsored by U.S. DOE
and Coordinated by the Regulatory Assistance
Project (RAP) MODEL REGULATIONS FOR THE OUTPUT OF
SPECIFIED AIR EMISSIONS FROM SMALLER SCALE
ELECTRIC GENERATION RESOURCES. October 31,
2002Texas Commission on Environmental Quality
(former TNRCC). Air Quality Standard Permit for
Electric Generating Units . June 2001
California Distributed Generation Certification
ProgramEffective October 2002
42(No Transcript)
43Y
Y
44WHY THESE PRINCIPLES MATTER
- Output Based Air Permitting Systems Reward
Efficiency - The need to appropriately credit CHP for
displaced thermal requirements at the site. - Protocols in air permitting flow over to other
programs such as Emissions Reduction Credits - Pre-Certification reduces costs and time duration
for siting projects and for capturing emissions
credits and allowances.
45Example of Equipment Pre-Certification State
of CaliforniaAIR RESOURCES BOARD (CARB)
Executive Order DG-004Distributed Generation
Certification ofIngersoll-Rand Energy
Systems70LM PowerWorks Microturbine
46Key Criteria for Recent Proposed DG Air
Regulations
47(No Transcript)
48CAPTURING ECONOMIC VALUE FROM EMISSION REDUCTIONS
- Emission Reduction Credits
- (All Northeast States)
- NOX Emission Allowances from State NOX Budget
Programs (MA, NY)
49EMISSION REDUCTION CREDITS (ERCs)
- Longstanding EPA and DEP principles require that
ERCs must meet the following requirements - Real
- Quantifiable
- Surplus
- Permanent
- Enforceable
50The 6 Key Steps for Creating ERCs
- 1. Select a representative baseline period
- 2. Compute prior actual annual emissions
- 3. Compute prior allowable annual emissions
- 4. Take the lesser of actual or allowable
- 5. Compute future maximum annual potential
- 6. Subtract line 5 from line 4 to obtain ERCs