# Greenhouse Gas Reductions: California Action and the Regional Greenhouse Gas Initiative

> Briefs, arguments, decisions, and more.

URL: https://www.frixlaw.com/law-library/documents/crs%3ARL33962

## Record

- **Collection:** Congressional research report
- **Document type:** CRS Report
- **Published:** August 31, 2007
- **Citation:** RL33962

## Text

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Prepared for Members and Committees of Congress

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In the absence of a federal program requiring greenhouse gas (GHG) emission reductions, a
growing group of U.S. states are taking action in this arena. Significant actions have been
undertaken in California and by a coalition of states from the Northeast and Mid-Atlantic regions.
California has undertaken several initiatives that seek to reduce GHG emissions. In 2004, the
state issued regulations to reduce GHG emissions from motor vehicles. At least 14 other states
have indicated that they plan to implement California’s new vehicle requirements. In 2006,
California passed two climate change statutes. The first establishes a statewide cap on GHG
emissions. The second, once it becomes applicable, effectively limits the use of coal-generated
electricity in California. The state has also taken action to reduce the carbon intensity in its
transportation fuels.
The Regional Greenhouse Gas Initiative (RGGI), a partnership of10 Northeast and Mid-Atlantic
states, sets up a cap-and-trade system aimed at limiting carbon dioxide emissions from power
plants. The cap is scheduled to take effect in January 2009 and cap carbon dioxide emissions at
188 million short tons through the end of 2014. In 2015, the cap would begin to decrease, so that
by 2018, emissions would be capped at 10% below the initial level. Because some observers see
RGGI as a possible model for a federal cap-and-trade program, several of RGGI’s design
elements are generating interest and debate.
Predicting the precise consequences of these state-led climate change actions is difficult. The
actions may affect energy markets to some degree by encouraging the use of fewer carbonintensive fuels. Many observers suggest that the range of state actions will catalyze federal
activity. Industry stakeholders are especially concerned that the states will create a patchwork of
climate change regulations across the nation. This prospect is causing some industry leaders to
call for a federal climate change program. If Congress seeks to establish a federal program, the
experiences and lessons learned in the states may be instructive.
The RGGI and climate change activities in California are aggressive, but the resulting emission
reductions may be offset by increased emissions in states without such requirements. This is a
primary limitation of state climate change programs. Legal challenges to the state actions,
particularly those that may affect interstate commerce, represent another obstacle.

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Introduction ..................................................................................................................................... 1
Climate Change Actions in California............................................................................................. 1
Statewide Emission Reduction Program ................................................................................... 1
Implementation ................................................................................................................... 2
Emissions Leakage.............................................................................................................. 3
Linkage with Other Emissions Trading Programs .............................................................. 3
Regional Emission Reduction Program .................................................................................... 4
Greenhouse Gas Performance Standard.................................................................................... 4
Motor Vehicle Emissions .......................................................................................................... 7
Transportation Fuels.................................................................................................................. 8
The Regional Greenhouse Gas Initiative......................................................................................... 8
Emission Allocation .................................................................................................................. 9
Safety Valve ............................................................................................................................ 10
Emissions Cap..........................................................................................................................11
Emissions Leakage.................................................................................................................. 13
Issues for Congress........................................................................................................................ 13
Potential Effects of State Actions............................................................................................ 13
States as Policy Laboratories ............................................................................................ 14
Possible Economic Impacts .............................................................................................. 15
Patchwork of Regulations ................................................................................................. 16
Limitations of State Actions.................................................................................................... 16
Legal Challenges to State Actions........................................................................................... 16

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Figure 1. California Greenhouse Gas Emissions, Historical and Projected Levels
Compared with 2020 Target ......................................................................................................... 2
Figure 2. Sources of California Electricity, by Fuel Type and Location of Generation
(based on 2005 data) .................................................................................................................... 6
Figure 3. Comparison of Observed Emissions (2000-2006) from RGGI States with
Emissions Allowed under RGGI Cap (2009-2018).................................................................... 12

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Table 1. Top Carbon Dioxide Emissions by Nation and Selected U.S. States (2003 data) ........... 14

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Author Contact Information .......................................................................................................... 17

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The connection between greenhouse gas (GHG) emissions in the atmosphere and climate change
has motivated efforts to achieve reductions of GHG emissions.1 In 1992, the United States ratified
the United Nations’ Framework Convention on Climate Change (UNFCCC), which called on
industrialized countries to initiate GHG reduction. However, in early 2001, President George W.
Bush rejected the UNFCCC 1997 Kyoto Protocol, which called for legally binding commitments
by developed countries to reduce their GHG emissions.
In the absence of a federal program requiring GHG reductions, a growing number of U.S. states
are taking action in this arena. Although a majority of states have addressed climate change to
some degree (e.g., by creating GHG inventories or state action plans2), the most aggressive
actions have come from a smaller group of states, including California and a coalition of states
from the Northeast and Mid-Atlantic regions.
California recently enacted several laws that seek to reduce GHG emissions. The first section of
this report discusses the activity in California. The second section focuses on the Regional
Greenhouse Gas Initiative (RGGI), a cooperative effort of 10 states in the Northeast and MidAtlantic regions to reduce carbon dioxide emissions from power plants. The report’s final section
considers these state-led actions from a federal policymaking perspective, examining the potential
effects, limitations, and legal challenges of state-led climate change actions.

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In the environmental policy domain, California is generally on the more proactive side of the
regulatory spectrum. The state’s recent climate change actions continue this pattern. California
has enacted several significant pieces of climate change legislation, each addressing GHG
emissions in different ways. A recent executive order from the governor supplements the state’s
climate change statutes. This section discusses the actions California has taken to decrease its
GHG emissions.

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California enacted legislation in September 2006 establishing a comprehensive GHG reduction
regime. The legislation—AB 32, The Global Warming Solutions Act—directs the California Air
Resources Board (CARB) to develop and implement a statewide program that would reduce the
state’s GHG emissions to 1990 levels by 2020. Recent emission levels (based on 2004 data) are
approximately 15% higher than emission levels in 1990.3 However, assuming a business-as-usual
1

This report does not address the debates associated with the climate change science, nor the role of human activity.
See CRS Report RL33849, Climate Change: Science and Policy Implications, by (name redacted).
2
For a discussion of these actions, see CRS Report RL33812, Climate Change: Action by States to Address
Greenhouse Gas Emissions, by (name redacted).
3
In 2004, California generated 492 million metric tons of carbon dioxide-equivalent (MMTCO2E). This amount
includes emissions from imported electricity but excludes combustion of international fuels, as well as carbon sinks.
The most recent report estimated that an analogous value in 1990 was 427 MMTCO2E. See California Energy
Commission, Inventory of California Greenhouse Gas Emissions and Sinks: 1990 to 2004—Final Staff Report,
(continued...)

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trend (i.e., without accounting for any GHG reduction requirements either under way or under
development), GHG emissions are projected to increase (Figure 1).

. California Greenhouse Gas Emissions, Historical and Projected Levels
Compared with 2020 Target
700
Projected Em issions (2005-2020)

600
500
400

Historical Emissions
(1990-2004)

300

AB 32
Greenhouse
Gas Target

200

2020

2018

2016

2014

2012

2010

2008

2006

2004

2002

2000

1998

1996

1994

0

1992

100
1990

Million Metric Tons of CO2-Equivalent

Figure 1

Prepared by the Congressional Research Service based on data from the California Energy Commission
(CEC), Inventory of California Greenhouse Gas Emissions and Sinks: 1990 to 2004—Final Staff Report, Dec. 22, 2006,
Figure 12 and Appendix F.
Note: The California CEC describes the projections as “rough estimates.” The estimates assume no new
emissions reduction strategies beyond those currently in place (i.e., following a business-as-usual trend).
Source:

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Although AB 32 is far-reaching in principle, the law’s text does not include many crucial details.
Instead, the statute grants considerable authority to CARB, which is charged with establishing the
framework and applicability of the program. For example, the law does not specifically require
the use of a market-based system, such as a cap-and-trade program, to reduce GHG emissions.
Instead, AB 32 authorizes CARB to develop regulations to “achieve the maximum
technologically feasible and cost-effective greenhouse gas emission reductions....” Moreover, the
statute does not include a list of regulated emission sources or categories, but instructs CARB to
determine which sources should be controlled to meet the statewide target. These decisions,
which will likely affect the entire California economy to some degree, entrust CARB with
significant responsibility.
Although the law grants considerable discretion to CARB, the statute does dictate a schedule for
various agency deadlines. The following dates highlight significant milestones of the mandatory
schedule:

(...continued)
December 22, 2006, Table 6, p. 25.

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June 30, 2007: CARB was to identify the early reduction options, which can be
implemented prior to the mandatory program, and for which a facility will
receive emissions credit. On April 20, 2007, CARB submitted proposed early
actions, which are to be implemented via regulation and enforceable by January
1, 2010.4

•

January 1, 2008: CARB must establish the 1990 baseline, which becomes the
2020 emissions cap.5

•

January 1, 2008: CARB must develop a mandatory reporting scheme for sources
affected by the cap. Sources report emissions for four years in order to establish
accurate facility baselines.

•

January 1, 2011: CARB must finalize regulations, including possible marketbased programs, that will implement the statewide emissions cap.

•

January 1, 2012: CARB begins to implement and enforce the mandatory
emission reduction program created in 2011.

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When setting up an emissions control program, AB 32 requires that emissions “leakage” be
addressed. The Environmental Protection Agency (EPA) states that emissions leakage
occurs when economic activity is shifted as a result of the emission control regulation and, as
a result, emission abatement achieved in one location that is subject to emission control
regulation is offset by increased emissions in unregulated locations.6

In recognition of emissions “leakage,” the statute requires regulators to account for GHG
emissions created by any source of electricity that is consumed in California. CARB must
develop a structure that will count emissions connected with electricity that is generated from
outside the state. Without this provision, California utilities might have a financial incentive to
import more electricity from out-of-state generators, who are not subject to the cap. In such a
scenario, California emissions would decrease, but the benefit would be negated by increased
(uncounted) emissions, or leakage, in neighboring states.

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When developing the emission reduction program in California, AB 32 instructs CARB to
consider other GHG reduction regimes, including the Regional Greenhouse Gas Initiative
(discussed below) and the European Union’s emission trading program. This instruction might
open the door for future emissions trading between California and other states. To catalyze this
4

CARB, 2007, Proposed Early Actions to Mitigate Climate Change in California.
Note that the 1990 GHG emissions baseline (and thus the 2020 cap) is based on estimates from multiple economic
sectors and is difficult to quantify precisely. For example, past estimates of 1990 levels range from a low of 425 million
metric tons of carbon dioxide equivalent (MMTCO2E) to a high of 468 MMTCO2E. This is a 10% variance between
low and high estimates. See California Energy Commission, Inventory of California Greenhouse Gas Emissions and
Sinks: 1990 to 2004—Final Staff Report, December 22, 2006, p. 4.
6
See Environmental Protection Agency (EPA), Office of Air and Radiation, 2003, Tools of the Trade: A Guide To
Designing and Operating a Cap and Trade Program For Pollution Control, Glossary.
5

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trading relationship, California Governor Schwarzenegger issued an executive order7 just a few
weeks after signing AB 32, calling for CARB and other state agencies to create a “market-based
compliance program with the goal of creating a program that permits trading with the European
Union, the Regional Greenhouse Gas Initiative and other jurisdictions.”8

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California is also a participating in the development of a regional GHG emission reduction
program. Governor Schwarzenegger and the governors of four western states—Arizona, New
Mexico, Oregon, and Washington—formed the Western Climate Initiative (WCI) February 26,
2007.9 Utah and two Canadian provinces—British Columbia and Manitoba—joined several
months later. In August 2007, the states and provinces set a regional, economy-wide target to
reduce GHG emissions to 15% below 2005 levels by 2020. By August 2008, the participating
state/province agencies agreed to develop a “market-based multi-sector mechanism, such as a
load-based cap and trade program” that will seek to reduce GHG emissions in the region.
Although the WCI is still in early development, there are several issues that may hinder its
implementation. As noted, the WCI is an agreement between the states’ governors. To implement
the program, the states’ legislatures would need to enact laws to carry out the initiative’s
objectives. This may present an obstacle if a state’s legislative branch finds fault with the
reduction program developed by states’ executive branch officials. In addition, the inclusion of
British Columbia and Manitoba may raise legal issues, particularly constitutional concerns.
Article I, Section 10, Clause 3 of the U.S. Constitution states that “[n]o State shall, without the
Consent of Congress ... enter into any Agreement or Compact with another State, or with a
foreign Power....” It is uncertain whether this clause (the “compact clause”) will create legal
hurdles for the WCI.

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California recently developed a GHG performance standard for the electricity sector that aims to
influence investment in long-term power generation. Although not directly requiring emission
reductions or offsets from specific facilities or sources, the standard should influence future GHG
emission levels by affecting which energy sources (coal, oil, natural gas, etc.) are used to generate
electricity for consumers.
The GHG performance standard, pursuant to legislation enacted in September 2006 (SB 1368),
forbids electricity producers—“load-serving entities”10—from entering into new “long-term
financial commitments”11 with power plants unless the plant’s GHG emissions are as low or
7

Executive Order S-17-06 (signed October 16, 2006).
The proposed trading relationships may raise constitutional issues. For example, the U.S. Constitution states that “No
State shall, without the Consent of Congress, ... enter into any Agreement or Compact with another State, or with a
foreign Power....” (Article I, Section 10, Clause 3).
9
For the text of the agreement, see http://www.westernclimateinitiative.org/.
10
Defined as “every electrical corporation, electric service provider, or community choice aggregator serving end-use
customers in the state.” SB 1368 (codified in Public Utilities Code, Section 8340(h)).
11
Defined as a “new ownership investment in baseload generation or a new or renewed contract with a term of five or
more years, which includes procurement of baseload generation.” SB 1368 (codified in Public Utilities Code, Section
8340(j)).
8

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lower than those of a new, combined-cycle natural gas facility. This emissions performance
standard will apply to both in-state power plants and out-of-state facilities that seek to export
electricity to California. The law directs the California Public Utilities Commission (PUC) to
issue standards for investor-owned facilities, which in 2003 accounted for 68% of the electricity
consumed in California.12 The PUC issued interim performance standards January 25, 2007. To
address the electricity consumption from publicly owned utilities,13 the statute directs the
California Energy Commission to issue comparable regulations by June 30, 2007. As of the date
of this report, these regulations are still under development.14
The new performance standards complement the statewide GHG reduction program. The
implementation of AB 32 is several years away (irrespective of legal challenges). The
performance standards act as a stop-gap measure, preventing further utility investment in carbonintensive fuels while the state is crafting an economy-wide reduction regime.
As previous power commitments expire and are exchanged with contracts that meet the new
GHG performance standard, California’s portfolio of energy sources will change. The statute and
its accompanying regulations, once in full effect, would appear to prohibit California consumers
from using electricity generated by conventional coal-fired power plants. Compared with a
combined-cycle natural gas plant, a conventional coal-fired power plant emits more than twice
the amount of carbon dioxide per kilowatt-hour. Using current technologies, coal-fired generators
would fail to meet the new emissions standard.15
From 2002 through 2005, approximately 20% of California’s electricity was generated from coal
(Figure 2).16 As the law takes effect, California will likely need to reduce/conserve a comparable
amount of energy or replace the coal-generated electricity with alternative sources of power.

12

See California Energy Commission, Electricity Consumption by Utility Type, at http://www.energy.ca.gov/
electricity.
13
Publicly owned utilities accounted for 27% of California’s electricity consumption in 2003. Self-generation units
made up the remaining percentage (about 5%). See California Energy Commission, Electricity Consumption by Utility
Type.
14
On March 10, 2007, the CEC proposed regulations. The final regulations were submitted to the Office of
Administrative Law June 1, 2007, but were disapproved by that body June 29, 2007. For more information, see
http://www.energy.ca.gov/ghgstandards.
15
As technology advances, coal-fired plants might be able to reduce GHG emissions through carbon capture and
sequestration (CCS). However, this remains a future prospect: “There is relatively little experience in combining CO2
capture, transport and storage into a fully integrated CCS system. The utilization of CCS for large-scale power plants
(the potential application of major interest) still remains to be implemented.” Intergovernmental Panel on Climate
Change (IPCC), 2005, IPCC Special Report Carbon Dioxide Capture and Storage, Summary for Policymakers, p. 8.
See CRS Report RL33801, Carbon Capture and Sequestration (CCS), by (name redacted).
16
The percentage of California’s electricity generated from coal should decrease, because a large coal-fired plant
(Mohave facility) was shut down at the end of 2005. California Energy Commission, Gross System Electricity
Production, at http://www.energy.ca.gov/electricity.

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Figure 2. Sources of California Electricity, by Fuel Type and Location of Generation
(based on 2005 data)

In-State Nuclear
13%
In-State
Hydroelectric
12%

In-State
Renew ables
11%

In-State Natural
Gas
33%

Im ports
30%

In-State Coal
1%

Im ported
Hydroelectric
5%

Im ported
Coal
19%

Im ported
Natural Gas
4%
Im ported Nuclear
2%

Prepared by the Congressional Research Service with data from the California Energy Commission
(CEC), 2005 Gross System Electricity Production, at http://www.energy.ca.gov.
Note: The CEC counts two geographically out-of-state facilities as in-state coal generation, because these
facilities are owned by California utilities. However, the above pie chart counts these out-of-state facilities’
generation as imported electricity. Because one of these facilities (Mohave) is at this time closed, the percentage
of coal-generated electricity imported to California, and thus consumed in California, should decrease.
Source:

The new performance standards will affect not only California, but also other states in the West.
Although California’s electricity imports generally fall between 22% and 32% of the state’s total
electricity consumption, its imports are responsible for 39% to 57% of the total GHG emissions
linked with its electricity.17 This is because most of California’s in-state electricity is produced
from sources other than coal, whereas most of the state’s imported electricity is generated through
coal combustion (Figure 2). Once the standard takes effect (and former power contracts expire),
the coal-fired plants in neighboring states, which previously provided electricity to California,
will need to look elsewhere for customers. The same goes for coal-fired power plants still in
development in western states, which may have been designed, at least in part, to serve California
consumers.18 Arguably, the GHG performance standards disproportionately affect the neighboring
states that have historically exported coal-generated electricity to California consumers. This
possible consequence may raise legal issues, such as a state’s general inability to regulate
interstate commerce. These issues are discussed at the end of this report.

17

California Energy Commission, 2006, Inventory of California Greenhouse Gas Emissions and Sinks: 1990 to 2004,
p. 12.
18
See Memorandum from Michael Easley, Chairman of Wyoming Infrastructure Authority, to California Energy
Commission (October 5, 2005); Chris Holly, “California PUC Issues IOU Greenhouse Rules; Muni Nixes Coal Deal,”
The Energy Daily, December 15, 2006.

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The U.S. transportation sector accounts for a substantial percentage—28% in 200419—of the
nation’s GHG emissions. Automobiles and light-duty trucks (fueled by gasoline or diesel)
generate the majority—63% in 2004—of the nation’s transportation-related GHG emissions.20
The transportation sector is the single largest source of the primary GHG, carbon dioxide, in 14
states.21
California’s transportation sector, in particular, generates almost 41% of the state’s annual
greenhouse emissions.22 Regarding the regulation of air emissions from motor vehicles,
California is in a unique position. California is the only state with conditional authority—the state
needs to obtain a waiver from the EPA—to develop motor vehicle pollution standards that are as
stringent or more stringent than federal requirements.23 The law permits other states to choose
between federal standards or California’s more stringent provisions.24
In 2002, California enacted the first state law (AB 1493) requiring GHG limits from motor
vehicles.25 As directed by the statute, the California Air Resources Board (CARB) issued
regulations in September 2004 limiting the “fleet average greenhouse gas exhaust mass emission
values from passenger cars, light-duty trucks, and medium-duty passenger vehicles.”26 The fleet
average caps first apply to model year 2009 vehicles. The caps become more stringent annually,
so that by 2016, the fleet average would be 30% below the 2009 level.
At least 14 states have formally adopted or announced plans to follow the California regulation.27
In order for the states to implement this standard, California must receive a waiver from the EPA.
California requested a waiver (as required by Section 209 of the Clean Air Act) in December
2005, but the EPA has yet to respond. Although the EPA has approved every California waiver
request since 1975, it displayed a reluctance to use the Clean Air Act to control GHG emissions,
arguing in federal court that the Clean Air Act does not authorize the EPA to regulate GHG
emissions for the purpose of addressing climate change.28

19

EPA, 2006, Inventory of U.S. Greenhouse Gas Emissions and Sinks: 1990-2004, Executive Summary, p. ES-13, at
http://epa.gov/climatechange/emissions/usinventoryreport.html.
20
The transportation sector also includes emissions (in descending order) from heavy-duty trucks, aircraft, boats, and
trains. EPA, 2006, Inventory of U.S. Greenhouse Gas Emissions and Sinks: 1990-2004, pp. 3-8, at http://epa.gov/
climatechange/emissions/usinventoryreport.html.
21
Based on 2003 data. EPA, Energy CO2 Emissions by State, at http://epa.gov/climatechange/emissions/
state_energyco2inv.html.
22
California Energy Commission, 2006, Inventory of California Greenhouse Gas Emissions and Sinks: 1990 to 2004,
p. 8.
23
Other states are preempted from doing so. See Clean Air Act Section § 209, codified at 42 U.S.C. § 7543.
24
Clean Air Act § 177, codified at 42 U.S.C. § 7507.
25
AB 1493 (or the California Vehicle Global Warming Law) was signed into law by Governor Gray Davis on July 22,
2002.
26
Title 13, California Code of Regulations § 1961.1.
27
The 14 states are Arizona, Connecticut, Florida, Maine, Maryland, Massachusetts, New Jersey, New Mexico, New
York, Oregon, Pennsylvania, Rhode Island, Vermont, and Washington.
28
For a historical discussion of these issues, see CRS Report RL32764, Climate Change Litigation: A Survey, by
(name redacted).

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However, an April 2, 2007, Supreme Court decision (Massachusetts v. EPA)29 provided
clarification on this issue. The Court found no doubt that the Clean Air Act gives EPA the
authority to regulate GHG emissions (in this case, from new motor vehicles). After the decision,
some observers speculated that the Clean Air Act waiver would be the most direct impact of the
decision. EPA Administrator Johnson announced that he would decide whether to grant the
waiver request by the end of 2007. For more discussion regarding this issue, see CRS Report
RL34099, California’s Waiver Request Under the Clean Air Act to Control Greenhouse Gases
From Motor Vehicles, by (name redacted) and (name redacted).

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To complement California’s statewide GHG reduction program, the governor issued an executive
order (signed January 18, 2007) establishing a low carbon fuel standard (LCFS). The LCFS aims
to reduce the carbon intensity of California’s transportation fuels by 10% by 2020. California
currently relies on petroleum-based fuels for 96% of its transportation needs.30 Achieving the
carbon intensity reduction is expected to replace 20% of the state’s gasoline consumption with
less carbon-intensive fuels.31 The LCFS would apply to all refiners, blenders, producers, and
importers of transport fuels.
The order states that transportation fuels shall be measured on a full fuel cycle basis. Thus,
regulators must factor in all of the energy used and potential GHGs emitted during the fuel’s
development (extraction or production), delivery (via vehicle or pipeline), and final use
(combustion). Corn-based ethanol, for example, is expected to play a role in meeting California’s
LCFS. To comply with the full fuel cycle assessment, regulators must consider the energy needed
to produce fertilizers, operate farm equipment, transport corn, convert corn to ethanol, and
distribute the final product. For more information on these issues, see CRS Report RL33290, Fuel
Ethanol: Background and Public Policy Issues, by (name redacted).
The LCFS executive order enhances alternative fuel legislation (AB 1007) that California passed
in 2005.32 AB 1007 requires the California Energy Commission (CEC), in partnership with other
agencies, including CARB, to develop and adopt a State Alternative Fuels Plan. CEC officials
have stated that they expect to submit the plan in September 2007.33 The executive order directs
CEC to supplement this plan with a compliance schedule for meeting the 2020 LCFS target.

ȱȱ ȱ ȱ ȱ
The Regional Greenhouse Gas Initiative (RGGI) is a market-based effort by 10 states—
Connecticut, Delaware, Maine, Maryland,34 Massachusetts,35 New Hampshire, New Jersey, New
29

The ruling is available at http://www.supremecourtus.gov/opinions/06pdf/05-1120.pdf.
Executive Order S-01-07, signed January 18, 2007.
31
California Office of the Governor, The Role of a Low Carbon Fuel Standard in Reducing Greenhouse Gas Emissions
and Protecting Our Economy, January 18, 2007.
32
The governor signed AB 1007 September 29, 2005.
33
California Energy Commission’s Letter to Assembly Speaker Nuñez requesting delay of AB 1007 Report (June 25,
2007), at http://www.energy.ca.gov/ab1007/documents/index.html.
34
Maryland Governor O’Malley signed RGGI’s Memorandum of Understanding on April 20, 2007, making Maryland
the first state that was not an original RGGI participant to join the regional initiative.
30

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York, Rhode Island, and Vermont—to reduce carbon dioxide emissions from power plants. RGGI
has been under development since 2003, when states from the Northeast and Mid-Atlantic regions
began to discuss setting up a cooperative effort to reduce carbon dioxide emissions. Subsequent
meetings and workshops culminated in a Memorandum of Understanding (MOU) that was signed
in December 2005. A primary strategy of RGGI is to create a program with flexibility, so that in
the future other emission sources/sectors, GHGs, and states could be included.
The initiative would set up the nation’s first mandatory cap-and-trade program for carbon dioxide.
Starting in January 2009, RGGI states have agreed to implement a cap of 188 million short tons
of carbon dioxide emissions from power plants. The cap is intended to stabilize emissions
through the end of 2014. In 2015 and each subsequent year, the emissions cap would be lowered
incrementally, so that by 2018, the cap would be 10% below the initial level.36
In a cap-and-trade system, regulators set a cap (or limit) on the overall emissions of a given gas
from a specified group of sources, such as power plants. The emissions allowed under the new
cap are then allocated in the form of credits (or permits) to individual sources. Sources that emit
more than their allowance must buy credits from those who emit less than their allowance, thus
creating a financial incentive for sources to reduce their own emissions.
The RGGI cap-and-trade program is to be implemented by the individual states. Each RGGI state
will need to establish its own law and/or regulation to administer and enforce the emissions
reduction program. However, each state will base its law/regulation on a detailed model rule that
was developed by the participant states. To facilitate administration of the trading program, the
MOU calls for the states to create a non-profit, regional organization. This organization is to
provide technical assistance to the RGGI states and help maintain consistent implementation
across state lines.
Depending on various design details, cap-and-trade systems can vary significantly. The cap level
and cap applicability (i.e., when the cap takes effect and which sources are affected) are perhaps
the primary variables regarding the impact of the program. Other details, such as emission
allocation and whether to include a safety valve, can further alter the character of a cap-and-trade
program. Some observers consider RGGI to be a model for a possible federal cap-and-trade
program, and thus several of RGGI’s design elements are generating interest and debate. These
issues are discussed below.

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One specific feature of RGGI—the emission allocation scheme—is drawing both praise and
criticism. In both RGGI’s Memorandum of Understanding and its Model Rule, states agreed that
at least 25% of emission allowances will be allocated for a “consumer benefit or strategic energy
purpose.” This action would require power plants to purchase the set-aside allowances, most

(...continued)
35
Massachusetts and Rhode Island were involved in RGGI’s development from the beginning. However, both states’
governors declined to sign the Memorandum of Understanding in 2005, citing costs as their primary rationale for not
participating. Massachusetts and Rhode Island joined RGGI as participants in January 2007.
36
RGGI Memorandum of Understanding, signed by participating state governors on December 20, 2005, and further
amended August 8, 2006; both versions are available at http://www.rggi.org/modelrule.htm.

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likely through an auction, instead of receiving them at no charge. Several states37 have indicated
that they intend to allocate 100% of their states’ allowances through an auction process. In other
emission trading programs, auctions have been used, but to a much lesser extent.38
Stakeholders have raised various issues regarding this format. For example, power companies
may not be able to share part of the allowance costs with their customer base if the companies
have a long-term, fixed-price contract.39 On the other hand, if utilities are able to pass along the
additional costs, consumers worry that their electricity bills may increase. Policymakers have
some flexibility to address these issues, because they can decide how best to use the revenues
generated from the allowance auction. For instance, states could use the auction revenues to
provide tax cuts to the affected industries, or to assist low-income families with paying for
increases in energy bills. Largely due to this flexibility, the auction approach is considered more
cost-effective than distributing allowances (for free) based on past or predicted emission rates.40
For more discussion regarding these issues, see CRS Report RL33799, Climate Change: Design
Approaches for a Greenhouse Gas Reduction Program, by (name redacted).

¢ȱȱ
In a cap-and-trade system a safety valve allows policymakers to control the costs of complying
with the emissions reduction program. A traditional safety valve would allow affected sources
(e.g., power plants) to purchase credits at a fixed price ($X/ton of carbon dioxide) instead of
reducing emissions. The price cap could be set high enough above market value so that facilities
would consider it only during extreme circumstances or unforeseen events. Thus, the incentive to
reduce emissions would remain, but the price cap (or safety valve) would assure the industry that
it will not have runaway compliance costs.41 The main disadvantage of a safety valve is that its
inclusion may limit the desired emission reductions, especially if the safety valve is set too close
to market value. In addition, a price cap may keep costs low enough that this would reduce the
economic incentive to invest in new technologies.
RGGI does not have a safety valve in this traditional sense. However, RGGI does allow for
compliance flexibility if the carbon dioxide allowance price reaches a certain level. For example,
if certain price thresholds are breached,42 facilities receive an additional year to demonstrate
emissions reductions. Also, in these cases, companies may cover a greater proportion of their
emissions by purchasing credits from other facilities or other allowable emission offsets, instead
of reducing emissions internally.
37

Vermont, New York, Maine, and Massachusetts, for example.
For example, in the U.S. sulfur dioxide trading system, the EPA sets aside 2.8% of its annual allowances to be sold at
auction. The European Union’s Emission Trading System (EU ETS) allows nation states to withhold 5% of their
nation’s allowances for auction. Although only 4 of the 27 EU member states have chosen to auction a portion of their
allowances, the amount available for auction will increase to 10% in 2008.
39
Dallas Burtraw and Karen Palmer, Summary of the Workshop to Support Implementing the Minimum 25 Percent
Public Benefit Allocation in the Regional Greenhouse Gas Initiative, Resources for the Future Discussion Paper,
September 2006.
40
Dallas Burtraw et al., 2001, The Effect of Allowance Allocation on the Cost of Carbon Emission Trading, Resources
for the Future Discussion Paper 01-30.
41
For more background on safety valves, see CRS Report RL33799, Climate Change: Design Approaches for a
Greenhouse Gas Reduction Program, by (name redacted).
42
RGGI has two price thresholds: $7/ton (2005$) and $10/ton (2005$).
38

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If a national cap-and-trade regime were adopted, a traditional safety valve might become an
important bargaining chip. Reportedly, the lack of a price cap, which could control costs to
industry and consumers, was a central factor behind former Massachusetts Governor Romney’s
decision to withdraw his state from RGGI participation in 2005.43

ȱȱ
The level and timing of the emissions cap in a cap-and-trade program are important
considerations for policymakers. In general, a carbon dioxide cap level and start date represent a
balance between the benefits of climate change mitigation and the economic burden imposed on
the affected sources.44 Political feasibility is often a factor when setting an emissions cap.45 The
RGGI 2009 cap was not based entirely on past emission levels (or expected levels), but was
developed through a negotiation among the states.46
One emissions cap strategy is to establish a cap that would take effect relatively quickly but only
require stabilization or modest reduction in emissions. The RGGI cap resembles this approach.
An advantage to this strategy is that it allows market forces to affect behavior at an earlier date—
for example, encouraging technological development or influencing investment decisions in less
carbon-intensive energy sources.
It is uncertain whether RGGI’s initial cap—188 million short tons of carbon dioxide—will be
higher than actual emissions when it takes effect in 2009 (Figure 3). The cap is slightly above
(about 4%) the average emission levels observed between 2000 and 2002. RGGI designers
anticipated that emissions would gradually increase, so that actual levels would approximately
match the cap in 2009. However, Figure 3 indicates this may not occur. Emissions were relatively
stable between 2001 and 2004; they increased in 2005 but dropped substantially in 2006.47 Figure
3 shows the 2006 emissions are 13% below the 2009 cap.
If actual emissions are below the cap when it goes into effect, the effectiveness of the RGGI
program may be impacted. The allowance price might drop to such a low level that facilities
would have no financial incentive to make reductions beyond their required allocation.48 This
potential problem may be alleviated by the opportunity for affected sources to bank emission
reductions for future use, when the cap will likely be lower than expected emissions. The RGGI
program allows unlimited banking. The ability to bank reductions effectively spreads the costs of
emission reduction over time. Banking emissions would reduce compliance costs in the future,
43

See, for example, Robert Stavins (2006), “A Utility Safety Valve for Cutting CO2,” The Environmental Forum, vol.
23, no. 2, March/April, 2006, p. 14. Note that Massachusetts rejoined RGGI in January 2007.
44
Although some may contend that this is not an either/or choice, most economic studies find that reducing carbon
dioxide emissions will entail economic costs. That debate is beyond the scope of this report.
45
See EPA, Office of Air and Radiation, 2003, Tools of the Trade: A Guide To Designing and Operating a Cap and
Trade Program For Pollution Control, pp. 3-9.
46
Per conversations with RGGI stakeholders.
47
The emissions data for 2005 and 2006 were estimated by: Point Carbon, 2007, “Emissions Trading in the US: Is
RGGI over-allocated?” This study states that its calculations are consistent with the approach taken by RGGI to
estimate emissions from earlier years.
48
This problem occurred during the first phase of the European Union’s Emission Trading System. For more
discussion see CRS Report RL34150, Climate Change and the EU Emissions Trading Scheme (ETS): Kyoto and
Beyond, by (name redacted).

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but also increase the value of current allowances (because they can be sold later). The incentive to
make additional reductions would remain.

Figure 3. Comparison of Observed Emissions (2000-2006) from RGGI States with
Emissions Allowed under RGGI Cap (2009-2018)
CO2 Emissions (million short tons)

190.0
185.0
180.0

???
175.0
170.0
165.0
160.0
155.0

Observed Emissions (2000-2006)

2018

2017

2016

2015

2014

2013

2012

2011

2010

2009

2008

2007

2006

2005

2004

2003

2002

2001

2000

150.0

Emission Cap (starting in 2009)

Prepared by CRS with data from the following: observed state emission data (2000-2004) provided by
RGGI, at http://www.rggi.org/draftdata.htm;49 observed state data (2005-2006) provided by Point Carbon, 2007,
“Emissions Trading in the US: Is RGGI over-allocated?”
Source:

Another tool that RGGI states may use to address the possibility of over-allocation is an
emissions auction reserve price. Several states have stated they intend to distribute 100% of their
states’ allowances through an auction process. If the supply of allowances exceeds demand (as
Figure 3 indicates may occur), the price of allowances will be very low. With an auction system,
states could set a reserve price, or price floor, below which allowances would not be sold. States
could remove the unsold allowances from the market entirely, effectively lowering the state’s
emission cap, or states could retain the unsold allowances and sell them in future auctions.50 This
second option would distribute costs over more years, and likely help control price volatility.
There is some indication that states that employ an auction will use a reserve price.51

49

The RGGI website does not have the emissions data for Maryland for 2003-2004. In the above graph, 2003 and 2004
emissions for Maryland were assumed to be consistent with previous years.
50
Alternatively, states could retire the unsold allowances, effectively lowering the state’s emission cap for that year.
51
In an interim report regarding auction design that was requested by RGGI officials, the authors recommended using a
reserve price when distributing allowances through an auction. See Dallas Burtraw, et al, 2007, Auction Design for
Selling CO2 Emission Allowances under the Regional Greenhouse Gas Initiative: Phase 1 Research Report (Draft).

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A critical design detail—electricity imports from non-RGGI states—remains unresolved. RGGI
faces the same “leakage” challenge as California. For example, if an RGGI state lowers its
emissions by importing more power from a non-RGGI state, the emissions reductions in the
RGGI state would likely be negated by an emission increase (or leakage) in the exporting state.
The opportunities for leakage are partially related to the price difference between high-carbon
fuels and low-carbon fuels. For instance, if the price of natural gas rises in comparison to coal,
there will be more of an incentive to import the cheaper electricity from non-RGGI states. RGGI
states have established a working group to examine how best to address this issue. The group
plans to submit a report to state agency leaders by December 2007.

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The Regional Greenhouse Gas Initiative (RGGI) and the climate change developments in
California raise several issues that may be of interest to Congress. This section discusses some of
the potential effects of these actions by states, the limitations of these actions, and legal
challenges that may hinder or halt implementation of the emission reduction programs.

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From a global perspective, many U.S. states emit significant amounts of GHGs. If individual U.S.
states were classified as sovereign nations, 18 U.S. states would rank in the top 50 for nations that
annually emit the primary GHG: carbon dioxide.52 Compared with other nations, Texas, the
combined WCI and RGGI states, and California rank as top carbon dioxide emitters (see Table
1).

52

This is based on 2003 data from the World Resources Institute, Climate Analysis Indicators Tool, at
http://cait.wri.org/.

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.Top Carbon Dioxide Emissions by Nation and Selected U.S. States (2003
data)

Table 1

Country, State, or
Group

CO2 Emissions
(million metric tons)

United States
China
European Union
Russian Federation
Japan
India
Germany
WCI states

5,778
4,497
4,003
1,581
1,258
1,148
865
730

Country, State, or
Group

Texas
RGGI states
United Kingdom
Canada
South Korea
Italy
Mexico
California

CO2 Emissions
(million metric tons)
719
606
553
544
489
468
400
395

Prepared by CRS with data from World Resources Institute, Climate Analysis Indicators Tool, at
http://cait.wri.org/. Note that the carbon dioxide data excludes land use changes.
Note: WCI states include Arizona, California, New Mexico, Oregon, Utah, and Washington. RGGI states
include Connecticut, Delaware, Maine, Maryland, Massachusetts, New Hampshire, New Jersey, New York, and
Vermont. Rhode Island is expected to soon join, and its emissions are included above.
Source:

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A primary argument in support of individual or cooperative state climate change action is that
states can serve as laboratories for policymaking. States can test different ideas and policies on a
smaller scale, and help determine which climate change solutions are most appropriate. Many of
the RGGI states and California have acted as pioneers in other environmental policy venues—for
example, automobile emissions standards in California and acid rain provisions in New England
states. Such programs often act as precursors or even models to federal environmental regimes.
Most federal legislative proposals that seek to control GHG emissions would employ a cap-andtrade emissions regime.53 There has been some debate regarding how a cap-and-trade program
might work on a national level. Although the federal acid rain program, which involves sulfur
dioxide emissions trading, is generally considered a success, some emissions trading programs
have encountered problems during implementation.54 State programs, such as RGGI, may offer
the opportunity to iron out logistical details that would be crucial in a national cap-and-trade
system:
•

Which sources to regulate.

•

How to allocate emissions allowances.

53

See CRS Report RL33846, Greenhouse Gas Reduction: Cap-and-Trade Bills in the 110th Congress, by (name redacted),
(name redacted), and (name redacted).
54
For example, the Southern California’s Regional Clean Air Incentives Market (RECLAIM), which was implemented
in 1994 to reduce emissions of nitrogen oxides (NOx) and sulfur dioxide (SO2), saw a 50-fold increase in NOx
allowance prices during the 2000-2001 California energy crisis. The European Union’s GHG trading system has also
experienced drastic swings in allowance prices during its start-up years, making planning and decision making difficult
for participating entities. For additional information on the EU trading system, see CRS Report RL33581, Climate
Change: The European Union’s Emissions Trading System (EU-ETS), by (name redacted).

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•

How high to set the emissions cap.

•

When to allow offsets instead of actual reductions.

•

Whether to include a safety valve, and if so, how high to set it.

State programs can inform federal policymakers in other ways. The political process by which
states create climate change policy can be enlightening and perhaps adaptable on the federal
level. For instance, by examining the development and passage of state legislation, federal
policymakers may better understand the motivations of different stakeholders and learn how best
to frame the issues.

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The mandatory emission reduction programs in California and RGGI will likely have economic
effects on consumers, businesses and manufacturers, and possibly interstate commerce.55 The
most immediate effects of the emissions programs (at least the ones furthest along in
development) will be on the automotive manufacturing and electricity generation sectors.
For automotive manufacturers, the California motor vehicle regulations—which at least 12 states
plan to implement—will likely have the effect of dividing the market, potentially requiring the
manufacture of a different class of cars to meet the new standards (scheduled to apply in 2009).
For automotive companies, this raises the issues of the technical means of meeting the standard,
marketing, ensuring compliance, and pricing. Depending on how the emission limits are to be
met, they may also influence fueling infrastructure. State governments will need resources to
enforce the standards. Consumers in regulated states may face higher prices for vehicles.
For the electric generating sector, the California and RGGI requirements will likely promote
generation from low carbon-intensive fuels, while curtailing generation from high carbonintensive fuels, such as coal. California’s GHG performance standards will reach into neighboring
states as well, effectively barring electricity imports generated by conventional coal-fired power
plants. As coal-fired plants tend to produce lower-cost electricity, the result of these requirements
may be to increase electricity prices within the states that limit emissions, and possibly lower
prices in states without such emission standards.
If the GHG limitations on motor vehicles and electricity increase prices in the regulated states,
businesses and manufacturers may factor this cost into location decisions. There is some concern
that regulated industries will have a financial incentive to move (and thus transfer jobs) to states
(or nations, such as Mexico or Canada) that do not limit GHG emissions.56 Others fear that
emission limits will raise the cost of living and doing business within those states, although in
theory such effects can be at least partially addressed through the design of the emissions
reduction program.57
55
The question of whether and in what circumstances states can regulate interstate commerce may raise legal questions,
which are discussed below.
56
This is also a central argument against having federal emission limits without cooperation with other large economies
(e.g., China and India).
57
A cap-and-trade program with an auction system (as discussed above), for instance, would generate revenues that
could be funneled to parties who bear an unfair percentage of the program’s costs. See, for example, National
Commission on Energy Policy, 2007, Allocating Allowances in a Greenhouse Gas Trading System.

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One concern shared by many observers, particularly industry stakeholders, is that state climate
change programs (in the absence of a federal program) will create a patchwork of regulations
nationwide. It is claimed that a patchwork system of standards may hinder a company’s efficiency
and possibly create economic burdens for firms that operate in multiple states. The prospect of
regulations that vary from state to state is moving some companies to support a federal climate
change program with comparable requirements across the entire United States.58

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Climate change has been described as the “ultimate global commons problem.”59 The global
warming and climate impacts associated with increased GHG emissions in the atmosphere cannot
be linked with specific emission sources. Unlike localized reductions in other air pollutants (e.g.,
sulfur dioxide, particulate matter), when an emissions source reduces its carbon dioxide
emissions, it does not generate a corresponding local climate change benefit unless there are
similar widespread reductions around the world.
From a practical standpoint, the actions of one or a small group of states cannot by themselves
significantly affect the global accumulation of GHG emissions in the atmosphere. However, as
discussed above, actions now under way in California and states in the Northeast and MidAtlantic regions may create examples and/or models that will prove instructive in more
widespread applications. Moreover, when business and industry have confronted a growing
patchwork of state requirements, these sectors have historically begun to favor a national
policy—as has begun to happen in the case of state-level actions on climate change. However, the
lack of a national program or a truly global approach to GHG emissions reductions does limit
what individual states can accomplish in actually reducing GHG emissions and accumulations.

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Legal challenges may halt or hinder state action. The possibility of legal challenges creates
considerable uncertainty regarding the future of state climate change actions, particularly the
more aggressive programs. There are already several lawsuits against state actions that seek to
regulate GHG emissions from motor vehicles. Car dealers and trade associations have filed suits
in California, Vermont, and Rhode Island seeking to halt the regulations on various grounds. For
example, the plaintiffs contend that California’s regulations are preempted by the Energy Policy
and Conservation Act (P.L. 94-163), which directs states not to regulate fuel economy standards.
It in uncertain what role the Massachusetts decision may play in these proceedings, because some
of the arguments in these cases (e.g., the relationship between conflicting federal and state
policing concerning climate change) were not addressed in the Massachusetts case.

58
For example, the newly created United States Climate Action Partnership (USCAP), an alliance of major businesses
and leading climate and environmental groups, calls on the federal government to enact legislation requiring significant
reductions of GHG emissions. See http://us-cap.org.
59
Robert Stavins, 2006, “A Utility Safety Valve for Cutting CO2,” The Environmental Forum, vol. 23, no. 2,
March/April, 2006, p. 14.

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Further litigation confronting the more recent state actions is anticipated. Many expect a legal
challenge to the RGGI program when the first state’s rule is officially issued.60 In addition, some
observers question whether California’s recently enacted GHG performance standards are
constitutional.61 They argue that the performance standards disproportionately affect the
neighboring states that have historically exported coal-generated electricity to California
consumers, raising the question of whether the California standard, in effect, regulates interstate
commerce.
The degree to which a state can influence interstate commerce is central to the debate regarding
state-led climate change activities. The U.S. Constitution grants Congress the power to regulate
interstate commerce.62 U.S. courts interpret this as a limitation on the states’ ability to regulate
interstate commerce.63
The legal arguments in these cases (and expected cases) are complicated and beyond the scope of
this report. Moreover, many of the legal and constitutional issues chart new ground. For these
reasons, many observers have concluded that it is difficult to predict how the courts will interpret
and decide these issues. Regardless of the ultimate strength and outcome of the legal arguments
opposing state-led climate change policies, affected stakeholders will almost certainly challenge
the implementation of emission reduction programs. It is uncertain how long these anticipated
legal challenges might delay GHG reductions in the states.

ȱȱ ȱ
(name redacted)
Analyst in Environmental Policy
[redacted]@crs.loc.gov
, 7-....

60
New York state is expected to be the first state to issue its rule implementing RGGI, according to statements made
from state officials at a climate change workshop: Pew Center on Climate Change, Innovative Approaches to Climate
Change: A State and Regional Workshop, Washington, DC, October 10-11, 2006.
61
See Brian Potts, 2006, “Regulating Greenhouse Gas Leakage: How California Can Evade the Impending
Constitutional Attacks,” Electricity Journal, vol. 19, issue 5, June 2006.
62
Article I, Section 8, Clause 3.
63
For more discussion of these issues, see CRS Report RL30315, Federalism, State Sovereignty, and the Constitution:
Basis and Limits of Congressional Power, by (name redacted).

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Source: Frix Law Library, https://www.frixlaw.com/law-library/documents/crs%3ARL33962. Public record. Not legal advice.
