Reducing Toxic Pollution from Power Plants April 13, 2011 EPA’s Proposed Mercury and Air Toxics Standards.

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Reducing Toxic Pollution from Power Plants April 13, 2011 EPA’s Proposed Mercury and Air Toxics Standards

Overview of Action On March 16, EPA proposed the Mercury and Air Toxics Standards, the first national standards to reduce emissions of toxic air pollutants from new and existing coal- and oil-fired power plants – often the biggest contributors to air pollution Standards would reduce emissions of: Metals, including mercury (Hg), arsenic, chromium, and nickel Acid gases, including hydrogen chloride (HCl) and hydrogen fluoride (HF) Particulate matter These pollutants are linked to cancer, IQ loss, heart disease, lung disease and premature death Standards create uniform emissions-control requirements based on proven, currently in-use technologies and processes Compliance time line set by Clean Air Act: up to 4 years (3 years plus an additional year if granted by the permitting authority) EPA is also proposing a new source performance standard (NSPS) for particulate, sulfur dioxide (SO 2 ), and nitrogen oxide (NO X ) emissions from new sources 2

Power Plants Are the Largest Remaining Source of Mercury Emissions in the U.S. 3 Industrial Category 1990 Emissions tons per year (tpy) 2005 Emissions (tpy) % Reduction Power Plants % Municipal Waste Combustors 57296% Medical Waste Incinerators 51<1>98% Source: EPA’s 2005 NATA Inventory Modified for the Toxics Rule 2005 Base Year (2010) In 1990 three source categories made up approximately two- thirds of total U.S. mercury emissions: municipal waste combustors, medical waste incinerators, and power plants Two of the three are now subject to federal emissions standards So are many other industries such as cement plants and steel manufacturers Today, 20 years after 1990 CAA Amendments passed, no federal limit for toxic emissions – including mercury – exists for coal- or oil-fired power plants

In the U.S., Power Plants Emit: 4 60% of the SO 2 20% of the chromium 13% of the NO x organics, dioxins/furans, and others 50% of the mercury over 50% of many acid gases 30% of the nickel 60% of the arsenic Sources: NEI Trends Data (2009) and IPM (2010) (SO 2, NO X ); Proposed toxics rule modeling platform, based on inventory used for 2005 NATA (Hg); Inventory used for 2005 NATA (other toxics)

5 Location of Coal and Oil Power Plants Source: National Electric Energy Data System (NEEDS 4.10) (EPA, December 2010)

6 Plant NameLocationFuel TypeTotal MW Capacity AES Thames Uncasville, CTCoal181 Bridgeport StationBridgeport, CTCoal/Oil512 MiddletownMiddletown, CTOil970 Montville StationUncasville, CTOil494 New Haven HarborNew Haven, CTOil448 NRG NorwalkSouth Norwalk, CTOil342 William F WymanYarmouth, MEOil824 Brayton PointSomerset, MACoal/oil1542 CanalSandwich, MAOil1112 Cleary FloodTaunton, MAOil134 Mount TomHolyoke, MACoal144 Mystic GeneratingCharlestown, MAOil1948 Salem HarborSalem, MACoal/Oil743 West SpringfieldWest Springfield, MAOil194 MerrimackBow, NHCoal466 NewingtonNewington, NHOil400 SchillerPortsmouth, NHCoal149 Electric Utilities identified in New England under the Utility MACT

7 Percentage of existing units still without advanced SO 2 and/or NO X controls Many Existing Coal Units Lack Advanced Controls 47% Current Coal Fleet (approximately 1,200 units) Data sources: EPA Base Case v.4.10 PTR

What the Toxics Rule Proposes Coal- and oil-fired power plants are covered by this rule All hazardous air pollutants must have standards EPA must set emission standards for existing sources in the category that are at least as stringent as the emission reductions achieved by the average of the top 12% best controlled sources Requirements for Coal-Fired Units Mercury: numeric emission limit would prevent 91% of mercury in coal from being released to the air Acid gases: HCl numeric emission limit as a surrogate, with an alternate surrogate of SO 2 Non-mercury metallic toxic pollutants such as arsenic and chromium: numeric emission limit for total PM as a surrogate, with alternate surrogate of total metal air toxics Organic air toxics (including dioxin): Work practice standards, instead of numeric standards, due to low-detected emission levels. Would ensure optimal combustion, preventing dioxin/furan emissions 8

What the Toxics Rule Proposes (cont.) Requirements for Oil-Fired Units Acid gases: Numerical HCl and HF emission limits Metal air toxics: Numerical emission limits for total metal air toxics (including Hg) with individual metal air toxics as alternate Organic air toxics (including dioxin): Work practice standards, instead of numeric standards, due to low-detected emission levels. Would ensure optimal combustion, preventing dioxin/furan emissions. 9

Affected Facilities: 1,350 Coal and Oil- Fired Units at 525 Power Plants 10 Approximately 1,200 coal-fired units 45% percent of nationwide electricity generation Bituminous coal ~ 50% of coal generation Subbituminous ~45% of coal generation Lignite ~ 5% of coal generation Includes units that burn coal, coal refuse, or a synthetic gas derived from coal either exclusively, in any combination together, or in any combination with other supplemental fuels (e.g., petroleum coke, tire- derived fuels) Approximately 150 oil-fired units 1% of nationwide electricity generation Natural gas power plants are not affected by this rule EPA expects most facilities would install technologies to comply with this rule

Benefits of the Proposed Toxic Rule Are Significant The value of the improvements to health alone total $59 billion to $140 billion each year This means that for every dollar spent to reduce this pollution, we would get $5-$13 in health benefits Each year, the proposed rule would prevent serious health effects including: 6,800-17,000 premature deaths;11,000 heart attacks; 120,000 asthma attacks; 850,000 missed work or “sick” days Protects pregnant women and children from the risk of brain damage and IQ loss due to mercury exposure Protects Americans from cancer and other health risks from exposure to metals such as arsenic, chromium, and nickel Protects thousands of lakes and streams – and the fish that live there and the mammals and birds that eat them – from mercury and acid rain pollution Provides employment for tens of thousands of American workers building, installing, and operating the equipment to reduce emissions of mercury, acid gases, and other toxic air pollutants 11

Sources Can Achieve These Standards 12 Proven control technologies to reduce these emissions such as scrubbers, fabric filters, and activated carbon injection are widely available Many units already use one or more of these technologies As a result of this standard, some power plants will upgrade existing controls (especially particulate matter controls like electrostatic precipitators) Power plants may also install new controls (such as fabric filters, dry sorbent injection, or activated carbon injection) Retrofit pollution control installations on coal-fired capacity (by technology) with the base case and with the proposed Toxics Rule, 2015 (measured in GW capacity). Source: Integrated Planning Model run by EPA, 2011 FGD: flu gas desulfurization (scrubber) DSI: dry sorbent injection SCR: selective catalytic reduction ACI: activated carbon injection FF: fabric filter

The Proposed Toxics Rule Doesn’t Only Save Lives, It Also Creates Jobs 13 Money spent on pollution control at power plants creates high-quality American jobs Jobs manufacturing steel, cement and other materials needed to build pollution control equipment Jobs creating and assembling pollution control equipment Jobs installing the equipment at power plants Jobs operating and maintaining the equipment once it is installed This rule will provide employment for thousands, by supporting 31,000 short-term construction jobs and 9,000 long-term utility jobs Source: EPA Regulatory Impact Analysis

Public Hearings and Comment The public is encouraged to provide EPA with comments on this proposed Toxics Rule The agency will seek comments for 60 days following publication in the Federal Register Public Hearings Locations Philadelphia Atlanta Chicago For more information on how to attend these public hearings, please visit: 14