Paul Dubenetzky Quality Environmental Professionals, Inc. (317) 351-4255 [email protected] Section 111 Contains the NSPS Provisions of the Clean Air Act 111b are the Provisions that Authorize Federal Rules that Directly Apply to New Sources Over 100 NSPS Covering both criteria and non-criteria emissions since 1970. 1 111d is a Rarely Used Provision of the Clean Air Act that Authorizes NSPS-like Best System of Emission Reduction Guidelines to Only Non-Criteria Pollutants From Existing Sources EPA has Proposed Both 111b & 111d Rules To Implement U.S. EPA’s Climate Action Plan on Existing Electric Generators The 111b Rule Sets Traditional CO2 Limits that Can Currently be Achieved Only by Natural Gas Combined Cycle Turbine Generators or Gasified Coal Combined Cycle Turbine Generators with Partial CCS The 111d Rule Sets State-Wide CO2 Emissions Targets and the States Develop Compliance Plans Over 15 Years 2 Increase Efficiency of Existing Generating Units Install More Low Emitting Generating Units Prioritize Dispatch to Low Emitting Generating Units Improve Energy Efficiency “Outside the Fence line” Increase Efficiency of Existing Generating Units Shift Generation from High Emitting to Existing Low Emitting Shift to Clean Energy Renewables Improve Energy Efficiency “Outside the Fence Line” 3 lb/net MWh 2012 Historic 2021 2020 Projected 1882 2022 CCP 1,578 2025 CCP 1,419 2028 CCP 1,309 tons/year 107,299,591 104,669,332 92,010,787 83,700,336 78,901,574 2030 CCP 76,901,574 1,242 Does Not Directly Affect Manufacturers May Raise Cost of Electricity May Trigger Demand for Products Like Insulation, LEDs, etc. Triggers a New Look at ROI of Efficiency Projects Beyond Light Bulbs, Think Combined Heat & Power 4 Fossil Fuel Fired Electric Generation Loses 60-65% of Energy Input to Heat Transmission Loses Average 7% Delivering to Consumer Combined Heat & Power Captures Lost Heat and Minimizes Transmission Losses Replacing Higher GHG Producing Electricity, Can Generate Compliance Credits Under 111d 5 2009 installation Two 15 MW gas-fired combined cycle gas turbine electric generators for campus use Heat Recovery Boilers to generate additional steam for heat and chillers 29% less energy used than to separately generate electricity and steam Two 15 MW NGCC units generate 210,000 MWh/yr 2,700,000 MMBtu per year natural gas consumption 117 lb CO2/MMBtu 158,000 tons CO2 emitted 6 Power Credit 210,000 MWh/yr +7% line loss credit 226,000 MWh/yr e-Grid 2010 1745 lbs CO2/MWh 197,000 tons/yr CO2 displaced from EGUs Thermal Credit 1,200,000,000 lbs steam per year generated 1,500,000 MMBtu displaced boiler fuel (NG) 87,750 tons CO2 displaced from steam generation 7 Total Credit Power Credit Thermal Credit CHP Emissions 197,000 tons + 87,750 tons -158,000 tons 126,750 tons Steel Mills and Refinery in NWI All Installed CHP projects 15-20 Years Ago Coke Oven, Blast Furnace, Refinery, & Natural Gas Generate Electricity for Grid Digester Gas from WWTP & CAFO Landfill Gas Ag Waste Micro Turbines (KW rather than MW) Waste Heat to Power 8 Widely Used at Large and Small Installations across the Country 10-12 % of Electricity Generated in US comes from CHPs Roughly Half of the Installations are Commercial & Institutional Often cost-effective on their own 111d Compliance Plans most likely Increase cost effectiveness One of the lowest cost options for reducing GHG emissions, can generate compliance credits Opportunities for Utilities to subsidize projects or otherwise pay for credits 9 CHP Is a Cost‐Effective Resource Source: Bloomberg Sustainable Energy Factbook 2014 CHP Saves Energy and Reduces Emissions Category Annual Capacity Factor Annual Electricity Annual Useful Heat Capital Cost Annual Energy Savings Annual CO2 Savings Based on: 10 MW CHP 10 MW PV 10 MW Wind 85% 25% 34% 74,446 MWh 21,900 MWh 29,784 MWh 103,417 MWht None None $24 million $45 million $24.4 million 343,747 MMBtu 225,640 MMBtu 306,871 MMBtu 44,114 Tons 20,254 Tons 27,546 Tons 10 MW Gas Turbine CHP ‐ 30% electric efficiency, 70% total efficiency, 15 PPM NOx Electricity displaces National All Fossil Average Generation (eGRID 2010 ) ‐ 9,720 Btu/kWh, 1,745 lbs CO2/MWh, 2.3078 lbs NOx/MWH, 6% T&D losses Thermal displaces 80% efficient on‐site natural gas boiler with 0.1 lb/MMBtu NOx emissions 10 The Remaining Potential for CHP Is Large • Technical Potential of 120+ GW (Industrial 60 GW; Commercial/Institutional 63 GW). (ICF estimates) • 40+ GW with payback less than 10 years. (AGA) • 111(d) could support 20 GW of new CHP nationwide. (ACEEE) Source: ICF Internal Estimates • 111(d) could support 10 GW of CHP potential with concentrations in the Midwest and Southeast. (CCAP) 9 Enforceability Performance Measurable Accountability 11 Overall Plan Must Contain Enforceable Measures BUT, each individual reduction strategy is not enforceable by the USEPA or the State Plan must contain corrective measures if individual elements are less than forecast Plan must show how it will achieve compliance with state budget Plan must show how individual measures contribute to the plan Include Plan to track progress 12 Reductions must be reliably measured using technically sound methods Protocols exist to document and verify avoided emissions from CHP State or utility must make up shortfall using the full range of options in the plan Individual CHP owner is not liable under compliance plan Individual CHP owner may be responsible for agreements entered to obtain financial support 13 CHP offers air quality & economic benefits CHP is a cost-effective in a number of industrial and institutional applications CHP produces low cost GHG reductions CHP is included in many existing state efficiency and clean-energy programs CHP meets EPA’s requirements for a 111d compliance option EPA CHP Partnership http://epa.gov/chp/index.html Center for Clean Air Policy http://ccap.org/tag/combined-heat-and-power/ National Association of State Energy Officials http://111d.naseo.org/ Alliance for Industrial Efficiency http://www.dgardiner.com/alliance-for-industrial-efficiency/ 14 CHP AS A COST‐EFFECTIVE ELECTRIC RESOURCE CHP AND ELECTRIC RATES CHP Economics Driven by Electric/Gas Prices Coal/Oil Plant Retirements New NGCC T&D Investments Grid Security Investments Industrial Electric Rates • 5th Lowest (2003) • 29th Lowest (2013) • SUFG Forecast 34% Increase • • • • • • www.bgdlegal.com 30 15 CHP AS AN ELECTRIC RESOURCE • • • • • • Supply Side and Demand Side Resources Integrated Resource Plans SB 412 (2015 Session) IURC Rulemaking Utility IRPs and Certificate of Need Utility Stakeholder Meeting www.bgdlegal.com 31 CHP AS A COST‐EFFECTIVE RESOURCE • • • • • • CHP Cost vs. Cost of Other Resources Base Load Resource Defers Investment in New Utility Plant Enhances Customer and Grid Reliability 111(d) Compliance Measure IRP Modeling (EE, IURC, SUFG, IDEM) www.bgdlegal.com 32 16 CHP AND ENERGY EFFICIENCY PLANS • • • • • SB 412 (2015 Session) DSM and EE Goals Eliminated IURC Approved EE Plans Every 3 Years IURC EE Rulemaking EE Plan Modeling www.bgdlegal.com 33 CHP AND UTILITY ACCEPTANCE • • • • • • Utility Cooperation is Important Business Model Issues Lost Revenue and Stranded Assets Inter‐class Subsidies Interconnection Standby Rates www.bgdlegal.com 34 17 POSSIBLE SOLUTIONS • • • • • • Eliminating the Artificial “Meter Barrier” Treat CHP as a Cost‐Effective Resource De‐Couple Cost Recovery from Revenue Allow Behind the Fence Ratebase Investment Leverage Customer and Utility Expertise Leverage Customer and Utility Financial Resources www.bgdlegal.com 35 SECTION 111(d) STATE PLAN • • • • • • Consistency in Modeling IRPs EE Plans IURC Resource Analysis SUFG Forecast IDEM’s State 111(d) Plan www.bgdlegal.com 36 18 CONCLUSIONS • Determine CHP Value as a Compliance Measure and Electric Resource • Identify CHP Opportunities (Industrial/ Manufacturing/Institutional) • Determine Role of CHP and Industrial EE as 111(d) Compliance Measures • Address Utility Business Model Issues • Coordination Between IURC, SUFG, and IDEM in Resource Planning and State 111(d) Compliance www.bgdlegal.com 37 19
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