ACEEE TESTIMONY
TESTIMONY OF STEVEN
NADEL, EXECUTIVE DIRECTOR
THE
AMERICAN COUNCIL FOR AN ENERGY-EFFICIENT ECONOMY
BEFORE
THE SUBCOMMITTEE ON ENERGY AND AIR QUALITY,
COMMITTEE ON ENERGY AND COMMERCE,
U.S. HOUSE OF
REPRESENTATIVES
HEARING ON NATIONAL ENERGY POLICY:
CONSERVATION AND ENERGY EFFICIENCY
June 22, 2001
Introduction
ACEEE is a non-profit organization
dedicated to increasing energy efficiency as a means for both promoting economic
prosperity and protecting the environment. We were founded in 1980 and have
contributed in key ways to energy legislation adopted during the past 20 years,
including the Energy Policy Act of 1992 and the National Appliance Energy Conservation
Act of 1987. I appreciate the opportunity to appear again before this Committee.
Energy efficiency improvement has
contributed a great deal to our nation's economic growth and increased standard
of living over the past 25 years. Consider these facts which are based primarily
on data published by the Energy Information Administration:
- Total primary energy use per
capita in the United States in 2000 was almost identical to that in 1973.
Over the same 27-year period economic output (GDP) per capita increased 74
percent.
- National energy intensity (energy
use per unit of GDP) fell 42 percent between 1973 and 2000. About 60% of this
decline is attributable to real energy efficiency improvements and about 40%
is due to structural changes in the economy and fuel switching.
- If the United States had not
dramatically reduced its energy intensity over the past 27 years, consumers
and businesses would have spent at least $430 billion more on energy purchases
in 2000.
- Between 1996 and 2000, GDP increased
19 percent while primary energy use increased just 5 percent. Imagine how
much worse our energy problems would be today if energy use increased 10 or
15 percent during 1996-2000.
Even though the United States is
much more energy-efficient today than it was 25 years ago, there is still enormous
potential for additional cost-effective energy savings. Some newer energy efficiency
measures have barely begun to be adopted. Other efficiency measures could be
developed and commercialized in coming years, with proper support:
- The Department of Energy's national
laboratories estimate that increasing energy efficiency throughout
the economy could cut national energy use by 10 percent or more
in 2010 and about 20 percent in 2020, with net economic benefits
for consumers and businesses.(1)
- ACEEE estimates that adopting
a comprehensive set of policies for advancing energy efficiency
could lower national energy use by as much as 18 percent in 2010
and 33 percent in 2020, and do so cost-effectively.(2)
All of these savings are from efficiency
improvements, meaning improving equipment and systems to get the same or greater
output (e.g. miles traveled or widgets produced) but with less energy input.
Additional energy can be saved from energy conservation, meaning reduced energy
use, including reducing energy waste (which is generally desirable) and reducing
energy services (which is generally not desirable). In my testimony here today,
I will talk only about energy efficiency and not about energy conservation.
Whether the savings potential from
energy efficiency is 20 or 30 percent, increasing the efficiency of our homes,
appliances, vehicles, businesses, and industries should be the cornerstone of
national energy policy today since it provides a host of benefits. Increasing
energy efficiency will:
- Reduce energy waste and increase
productivity, without forcing consumers or businesses to cut back on energy
services or amenities;
- Save consumers and businesses
money since the energy savings more than pay for any increase in first cost;
- Reduce the risk of energy shortages
and improve the reliability of overtaxed electric systems;
- Reduce energy imports;
- Reduce air pollution of all types
since burning fossil fuels is the main source of most types of air pollution;
- Lower U.S. greenhouse gas emissions
and thereby help to slow the rate of global warming.
Furthermore, increasing energy
efficiency does not present a trade-off between enhancing national security
and energy reliability on the one hand and protecting the environment on the
other, as do a number of energy supply options. Increasing energy efficiency
is a "win-win" strategy from the perspective of economic growth, national security,
reliability, and environmental protection.
We are not saying that energy efficiency
alone will solve our energy problems. Even with aggressive actions to promote
energy efficiency, U.S. energy consumption is likely to rise for more than a
decade, and this growth, combined with retirements of some aging facilities,
will mean that some new energy supplies and energy infrastructure will be needed.
But, aggressive steps to promote energy efficiency will substantially cut our
energy supply and energy infrastructure problems, reducing the economic cost,
political controversy, and environmental impact of energy supply enhancements.
Energy Efficiency Policy
Recommendations
The remainder of my testimony will
focus on six priority energy efficiency policies which are cost-effective to
consumers and businesses and will substantially reduce U.S. energy use. The
first four of these recommendations are within this Committee's area of jurisdiction,
the other two fall under the jurisdiction of other Congressional committees.
Each of these recommendations could reduce U.S. energy use by more than 1% in
2020; taken together they would reduce U.S. energy use by about 20%.
These policies involve a combination of "carrots" and "sticks," including new
incentives, funding for R&D and technology deployment, and new regulations.
The policies would significantly increase the efficiency of energy use in our
homes, commercial buildings, factories, and vehicles.
1. Adopt Efficiency Standards for Several New Products
Federal appliance and
equipment efficiency standards were signed into law by President
Reagan in 1987 and expanded under President Bush in 1992. Minimum
efficiency standards were adopted because many market barriers,
such as lack of awareness, rush purchases when an existing appliance
breaks down, and purchases by builders and landlords, inhibit the
purchase of efficient appliances in the unregulated market. Standards
remove inefficient products from the market but still leave consumers
with a full range of products and features to choose among. Appliance
and equipment standards are clearly one of the federal government's
most effective energy-saving programs. Analyses by DOE and others
indicate that in 2000, appliance and equipment efficiency standards
saved 1.2 quadrillion Btu's (quads) of energy (1.3% of U.S. electric
use) and reduced consumer energy bills by approximately $9 billion
with energy bill savings far exceeding any increase in product cost.(3)
By 2020, standards already enacted will save 4.3 quads/year (3.5%
of projected U.S. energy use), and reduce peak electric demand by
120,000 MW (more than a 10% reduction). The President's National
Energy Plan devotes half a page to this program and notes that these
"standards will stimulate energy savings that benefit the consumer,
and reduce fossil fuel consumption, thus reducing air emissions."(4)
In order to provide additional
cost-effective savings under this program, we recommend three actions:
- DOE, with adequate funding and
encouragement from the Congress, should commit to completing equipment standard
rulemakings in a timely manner. Current rulemakings include initial standards
for distribution transformers as well as new, updated standards for commercial
air conditioning systems and residential heating systems. Rulemakings should
also be started soon to update existing standards for residential dishwashers,
and refrigerators. On-going proceedings should be completed within two years,
new proceedings within three years.
- The Congress should enact new
efficiency standards for products now or soon to be covered by
state efficiency standards and by several voluntary standards
programs. Among the products that should be included are distribution
transformers,(5) commercial
refrigerators, exit signs, traffic lights, torchiere lighting
fixtures, ice makers, and commercial unit heaters. California
is now adopting standards on many of these products and Massachusetts
and Minnesota already have standards on distribution transformers.
None of these standards have been controversial and all involve
highly cost-effective energy savings. In addition, the Congress
should adopt limits on standby power consumption for household
electronic products and appliances based on levels promoted through
the ENERGY STAR® program and should also direct DOE to adopt
standards on furnace fans, ceiling fans, and cold-drink vending
machines. Setting standards for household electronic products
such as televisions, VCRs, cable boxes, and audio equipment would
substantially reduce the approximately 5% of household electricity
consumed when products are not "on". Standards for the other products
mentioned above will be very cost-effective, but certain technical
details need to be worked out which is why DOE and not the Congress
should set specific standard levels.
- The Bush Administration should
permit a SEER 13 efficiency standard for residential central air conditioners
and heat pumps to proceed. The Administration recently announced that it will
soon propose rolling back the standard issued in January from SEER 13 to SEER
12. A SEER 13 standard relative to a SEER 12 standard will cut peak electricity
demand by 18,000 MW (equivalent to 60 power plants of 300 MW each) once the
standard is fully phased in, and will cut consumer electricity bills by more
than $18 billion over the next 30 years. This is one of the most important
steps the Federal government can take to help California and other states
avoid future power shortages.
The first two of these recommendations
are consistent with the President's National Energy Plan which recommends
that the Secretary of Energy: (1) "support [the] appliance standards
program for covered products, setting higher standards where technologically
feasible and economically justified;" and (2) "expand the scope
of the appliance standard program, setting standards for additional
appliances where technologically feasible and economically justified."(6)
However, we recommend that the Congress take action in order to
accelerate savings (Congressional action can avoid a 3-10 year DOE
rulemaking process) and because DOE currently lacks authority to
set standards for commercial and industrial equipment not currently
covered by the federal standards program.
ACEEE estimates that these three
steps can cost-effectively reduce energy use in 2020 by about 2.4
quadrillion Btu's (quads), nearly a 2% reduction in projected U.S.
energy use. Consumers and businesses would see their energy bills
decline by nearly $20 billion per year by 2020. Savings in 2010
would be about one-third of these amounts.(7)
A forthcoming ACEEE analysis estimates that the benefits of just
the second step will be approximately five times greater than the
costs, and will provide net benefits to consumers and businesses
of about $80 billion from products sold through 2020.
2. Establish a National System
Benefit Trust Fund
Electric utilities historically
have funded programs to encourage more efficient energy use, assist
low-income families with home weatherization and energy bill payment,
promote the development of renewable energy sources, and undertake
research and development. Experience with utility energy efficiency
programs in New England, New York, and California shows that the
energy bill savings for households and businesses are around twice
costs (both the program costs and measure costs).(8)
However, increasing competition and restructuring have led to a
decline in these "system benefit expenditures" over the past six
years. Total utility spending on all demand side management programs
(i.e., energy efficiency and peak load reduction) fell by more than
50% from a high of $3.1 billion in 1993 to $1.4 billion in 1999
(1999 dollars).(9)
In order to ensure that energy efficiency
programs and other public benefits activities continue following restructuring,
15 states have established system benefits funds through a small charge on all
kilowatt-hours (kWh) flowing through the transmission and distribution grid.
We recommend creation of a national systems benefits trust fund that would provide
matching funds to states for eligible public benefits expenditures. Specifically,
we recommend a non-bypassable wires charge of two-tenths of a cent per kWh.
This concept and specific amount were included in utility restructuring bills
sponsored by Rep. Pallone (H.R. 2569) and Senator Jeffords (S. 1369) in the
last Congress. This concept is based on the Universal Service provisions contained
in the Telecommunications Act of 1996.
This policy would give states and
utilities a strong incentive to expand their energy efficiency programs and
other public benefits activities. All states and utilities would pay into the
fund, but they would only get money back out if they establish or continue energy
efficiency programs and other public benefit activities. However, individual
states, not the federal government, would decide how the money gets spent in
each state. The Pallone and Jeffords bills provide one national dollar for each
state dollar but other matching ratios could also be considered such as a 2:1
national:state match, or a baseline funding amount with no matching requirement
plus an additional supplemental amount subject to a match.
We believe this policy would lead
to widespread energy efficiency improvements in lighting, appliances,
air conditioning, motors systems, and other electricity end uses.
We estimate it could save as much as 54 TWh (1.4% of projected electricity
use) in 2005 and 291 TWh (7% of projected use) in 2010.(10)
With these levels of electricity savings, the risk of power shortages
in the future will diminish, there will be fewer price spikes caused
by periods of tight supply and demand, and there will be less need
to build often contentious new power plants. In addition, pollutant
emissions from power plants will fall, thereby improving public
health and helping cities and states meet the ambient air quality
standards.
3. Increase Corporate Average
Fuel Economy (CAFE) Standards for Cars and Light Trucks or Adopt an Equivalent
Fuel Consumption Cap
The average fuel economy of new
passenger vehicles (cars and light trucks) has declined from about 26 miles
per gallon (mpg) in 1988 to 24 mpg in 2000 due to increasing vehicle size and
power, the rising market share of light trucks, and the lack of tougher Corporate
Average Fuel Economy (CAFE) standards. The original CAFE standards for cars
were adopted in 1975 and reached their maximum level in 1985.
We recommend increasing the CAFE
standards for cars and light trucks 5% per year for 10 years so
that they reach 44 mpg for cars and 33 mpg for light trucks by 2012,
with further improvements of 3% per year beyond 2012. Alternatively,
the standards for cars and light trucks could be combined into one
value for all new passenger vehicles, specifically 38 mpg by 2012.
This level of fuel economy improvement is technically
feasible and cost effective for consumers, and it can be achieved
without compromising vehicle safety.(11)
The 5% annual fuel economy improvement is the rate of improvement
that Ford has indicated it will achieve voluntarily for its SUVs
over the next five years. If this rate can be achieved in SUVs,
it can be achieved in all new vehicles made by Ford as well as other
manufacturers.
Car manufacturers will protest
and say "it can't be done" or "it will cost a fortune," as they did when the
original CAFE standards were debated. The initial CAFE standards were enacted
by the Congress and signed into law by President Ford in 1975 in the face of
industry opposition, and the car companies complied with these standards at
reasonable cost. Tougher standards are now long overdue and should be adopted
before we face another oil price shock or crisis, considering "technological
feasibility, economic practicability, and the need of the nation to conserve
energy,"as stated in the Energy Production and Conservation Act of 1975.
Tougher fuel economy standards
should be complemented by tax credits for purchasers of innovative, highly efficient
vehicles (see policy 5 below), expanding taxes on gas guzzling vehicles, increasing
labeling and consumer education efforts, and continuing vigorous R&D on
fuel-efficient, low emissions vehicles. This combination of policies would facilitate
compliance with the tougher standards.
The CAFE standards proposed here
would save about 1.5 million barrels of petroleum per day by 2010
and 4.8 million barrels per day by 2020. Over 40 years, increasing
vehicle efficiency as suggested above would save 10-20 times more
oil than the projected supply from the Arctic National Wildlife
Refuge (ANWR) and more than three times total proven U.S. oil reserves
today.(12) The avoided
carbon dioxide emissions would also be very substantial.
An alternative approach would be
to establish a cap on the use of petroleum products by passenger vehicles and
then come up with the policy mechanisms, including but not limited to stronger
CAFE standards, that would enable the cap to be met. This approach was included
in recent Senate legislation (S. 597), which sets the cap at 105% of fuel consumption
in 2000 starting in 2008. This fuel consumption cap would result in a energy
savings and avoided CO2 emissions in the near term (i.e., by 2010)
similar to those achieved by strengthened CAFE standards.
4. Promote Clean, High-Efficiency
Combined Heat and Power Systems
Combined heat and power (CHP) systems
(also called cogeneration) produce multiple usable energy forms (e.g.,
electricity and steam) from a single fuel input. These combined systems can
achieve much greater efficiency than separate systems because they produce the
heat that would otherwise need to be generated in a separate boiler, while also
producing power on-site at a higher efficiency than most central station power
plants.
Several inequities in government
and utility regulations hinder development of CHP resources. These include utility
rules that make it difficult for many CHP systems to connect to the utility
grid, tax depreciation rules that vary the depreciation period for CHP systems
from 5-39 years depending on plant ownership, and environmental standards that
do not recognize the efficiency gains of CHP systems. Each of these problems
need to be addressed.
CHP and other distributed generation
technologies have encountered hurdles to interconnecting with the electric utility
system, which has lead to a hostile environment for CHP in many utility service
territories. These hurdles include a lack of standard technical specifications,
which means that each utility develops its own specification. While many of
these utility specifications are reasonable, others are not and contain unreasonable
requirements, such as expensive equipment or project studies, and discriminatory
pricing and contractual practices such as "exit fees" and onerous terms and
conditions of service.
While some states have begun to
address these issues, many have not, and those that have, take somewhat different
approaches. Federal legislation is needed to address these issues in a consistent
manner across states. The legislation should require that CHP facilities
be interconnected with the local distribution facilities if the CHP owners comply
with new IEEE interconnection standards and pay the directly related costs.
CHP facilities should have a right to back-up power sold at rates, terms, and
conditions that are reasonable and not discriminatory as determined by the appropriate
regulatory authority. Provisions along these lines are included in H.R. 1945
which was recently introduced by Rep. Quinn and others. In addition, high-efficiency
CHP systems should be exempted from exit fees that are not directly related
to service to that customer.
Under current IRS rules, CHP assets
are depreciated over varying time periods depending on system configuration
and owner (i.e., the same equipment can be depreciated over as little
as five years to as much as 39 years). For example, equipment at
a data center is depreciated over 5 years, while the same system
installed in an owner-occupied commercial building is deprecated
over 39 years. This treatment is a result of policies that did not
envision the changes in technology and markets that have occurred
in recent years. Most modern CHP systems use combustion turbines
derived from jet engines, which have much lower capital costs than
older systems but require more extensive and expensive maintenance.
These systems are projected to run 7-10 years before needing major
capital investment. A common depreciation period is needed for CHP
equipment. Based on the technical and market life of current systems,
we recommend a depreciation period in the range of 7-10 years (at
the high end of this range if a separate investment tax credit is
offered; at the low end of this range if there is not a separate
investment tax credit). This is consistent with the President's
National Energy Plan which recommends that "the Secretary of the
Treasury [should] work with Congress to encourage increased energy
efficiency through combined heat and power (CHP) projects by shorterning
the depreciation life for CHP projects or providing an investment
tax credit."(13)
Most stationary-source air quality
regulations are based on either the emissions per unit of fuel burned or the
concentration of a pollutant in the smokestack. This smokestack approach makes
no adjustment in allowable emissions based on the efficiency of energy use.
Thus, a CHP system receives no credit for net total emissions reductions achieved
when compared to separate systems for providing heat and power. To address this
problem, the permitting of CHP systems should be shifted from an input-based
to an output-based approach (i.e., maximum emissions per unit of useful energy
output). Output-based levels equivalent to current input-based levels for separate
heat and power should be developed by EPA.
DOE and EPA have set
a goal of adding 50,000 MW of new CHP capacity by 2010. With these
barriers removed, we believe this target is achievable, and further
growth could add an additional 95,000 MW over the 2011-2020 period.
Relative to the conventional power plants these systems would displace,
this new CHP capacity would result in net energy savings of approximately
1.5 quads in 2010 and 4 quads in 2020. Carbon dioxide emissions
would be cut substantially.(14)
Owners of CHP systems (businesses and industries) will realize net
cost savings that pay back the first cost in 4-5 years on average.(15)
5. Enact Tax Incentives for Highly Energy-Efficient Vehicles, Homes, Commercial
Buildings, and Other Products
Many new energy-efficient technologies
including fuel cell power systems, hybrid and fuel cell vehicles, gas-fired
heat pumps, super-efficient refrigerators and clothes washers, and super-efficient
new buildings have been commercialized in recent years or are nearing commercialization.
But these technologies may never get manufactured on a large scale or widely
used due to their initial high cost, market uncertainty, lack of consumer awareness,
and other barriers.
Tax incentives can help manufacturers
justify mass marketing for innovative energy-efficient technologies. Tax credits
also can help buyers (or manufacturers) offset the relatively high first cost
premium for the new technologies, thereby helping to build sales and market
share. Once the new technologies become widely available and produced on a significant
scale, costs should decline and the tax credits can be phased out.
We recommend providing tax incentives
for a variety of highly energy-efficient vehicles, buildings, and other products.
A key element in designing the credits is for only highly efficient products
to be eligible. If the eligibility level is set too low, then the cost to the
Treasury will be high and incremental energy savings low because many of the
credits will go to projects that would have occurred even without the credits
(so-called "free riders").
We recommend tax incentives for
the following products:
- Hybrid Electric and Fuel
Cell Vehicles. Tax credits of up to $4,000 for hybrid electric vehicles
and $8,000 for fuel cell vehicles will help jump start introduction and purchase
of these innovative, fuel-efficient technologies. The incentives should be
based primarily on energy performance and provide both fuel savings and lower
emissions, as is the case in the CLEAR Act introduced by April 24 by Sen.
Hatch and others, and by Rep. Camp in the House (H.R. 1864). The President's
National Energy Plan also endorses tax credits along these lines.
- Combined Heat and Power.
We support either a 10% investment tax credit or seven-year depreciation period
for combined heat and power systems with an overall efficiency of at least
60-70% depending on system size. This proposal has strong industry support
and is included in both the Murkowski and Bingaman bills and in the Quinn
bill (H.R. 1945) in the House. This proposal is also endorsed in the President's
National Energy Plan.
- New Homes. A tax credit
of up to $2,000 for highly efficient new homes will stimulate efficiency and
help lower housing costs for American families. Versions of this proposal
have been introduced by Sen. Bob Smith (S. 207) and Rep. Bill Thomas and others,
and variants are included in both the Murkowski-Lott (S. 389) and Bingaman-Daschle
(S. 596) energy bills.
- Appliances. A tax credit
of $50-100 for manufacturers of highly efficient clothes washers and refrigerators
will help save energy and water (with a cap on the total credit per manufacturer).
This proposal has been introduced by Sens. Grassley and Allard in the Senate
and Reps. Nussle and Tanner in the House (H.R. 1316). It is strongly supported
by the appliance industry.
- Commercial Buildings.
We support a tax deduction of $2.25 per square foot for investments in commercial
buildings and multifamily residences that achieve a 50% or greater reduction
in heating and cooling costs compared to buildings meeting current model energy
codes. This proposal is included in legislation sponsored by Sen. Bob Smith
in the Senate and Rep. Cunningham in the House (H.R. 778).
- Other Building Equipment.
We support a 20% investment tax credit with caps for innovative building technologies
including very efficient furnaces, stationary fuel cell power systems, gas-fired
heat pumps, and electric heat pump water heaters. This proposal is included
in the Bingaman bill.
6. Reject the Deep Cuts in
Funding Proposed for DOE's Energy Efficiency Programs and Instead Expand These
Programs and EPA's ENERGY STAR® Programs in FY2002 and Subsequent Years
The U.S. Department of Energy (DOE)
has made many valuable contributions towards increasing the energy
efficiency of U.S. buildings, appliances, vehicles, and industries.
Consequently, the President's Committee of Advisors on Science and
Technology (PCAST) stated in 1997 that "R&D investments in energy
efficiency are the most cost-effective way to simultaneously reduce
the risks of climate change, oil import interruption, and local
air pollution, and to improve the productivity of the economy."(16)
This is not just a rhetorical statement.
DOE recently documented that 20 of its most successful energy efficiency
projects have already saved the nation 5.5 quadrillion Btus of energy,
worth about $30 billion in avoided energy costs, mostly over the
past decade.(17) The
cost to taxpayers for these 20 activities was $712 million, less
than 3 percent of the energy bill savings so far. In fact, the energy
bill savings from these 20 projects alone is over three times the
amount of money appropriated by the Congress for all DOE energy
efficiency and renewable energy programs during the 1990s, demonstrating
that spending taxpayers money on energy efficiency R&D and deployment
is a very sound investment. There are many other indicators of success
and effectiveness besides the 20 projects reviewed in this report.
The ENERGY STAR® deployment
programs operated by EPA and DOE have also been very successful.
Since starting the Green Lights program in 1991, EPA has shown great
creativity in developing cost-effective, practical programs that
are having a substantial impact. For example, 16 percent of the
commercial and public sector building space in the country has now
signed up for the ENERGY STAR® Buildings program. The ENERGY
STAR® New Homes program is growing rapidly with over 1,600 builders
now participating and more than 25,000 ENERGY STAR® Homes built.
These homes use 35 percent less energy for heating and cooling on
average compared to current "good practice" model building codes.
And the ENERGY STAR® labeling program has transformed the market
for personal computers, photocopiers, printers, and facsimile machines.
Prior to ENERGY STAR®, most of this equipment consumed energy
whether the machine was in use or not. Through the ENERGY STAR®
program, EPA stimulated use of power management which allows equipment
to go into a low-power "sleep mode" when equipment is not in use.
As a result of cumulative purchases, consumers saved more than 49
billion kWh in 2000--worth about $3.9 billion.(18)
The Bush Administration has proposed
cutting DOE's energy efficiency R&D and technology deployment
programs (apart from grants to low-income households for home weatherization)
by $180 million (29 percent) in FY2002. Some programs would be cut
by 50 percent or more. Proposed funding for EPA's ENERGY STAR®
program is approximately level with last year. On the other hand,
the President's National Energy Plan, directs DOE and EPA to "promote
greater energy efficiency" including to: "expand the ENERGY STAR®
program beyond office buildings to include schools, retail buildings,
health care facilities and homes; extent the ENERGY STAR® labeling
programs to additional products, appliances, and services; [and]
strengthen ... public education programs relating to energy efficiency."(19)
In order to meet the directives in the energy plan, DOE and EPA
energy efficiency funding will need to be increased, not decreased.
The 1997 review of energy research
programs by PCAST recommended that funding for DOE's energy efficiency
R&D programs be increased from $373 million in fiscal year 1997
to $880 million in fiscal year 2003. This increased funding would
be used to expand programs in many areas such as for work in transportation
on more fuel-efficient cars and trucks, work in industry on improved
electric motors, material-processing technologies and manufacturing
processes, and work in residential and commercial buildings on high-technology
windows, super-insulation, more efficient lighting, and advanced
heating and cooling systems. In fiscal year 2001, funding for these
programs is $556, so to meet the PCAST recommendations, funding
will need to be increased about 25% per year for the next two years.
PCAST estimated that if these recommendations are adopted, energy
bills could be reduced by $30-45 billion in 2010 and $75-95 billion
in 2020 (these savings overlap some with savings from the other
policies we recommend).(20)
Funding for the EPA programs should
also be expanded. EPA has projected that with continued funding
at current levels, energy and emissions savings in 2010 will be
more than double savings in 2000, including carbon emissions reductions
of about 90 MMT(21)
(these savings overlap to some extent with other policies we recommend.)
With increased funding, savings could be even greater. EPA and DOE
should expand the scope and level of promotion associated with the
ENERGY STAR® program. ENERGY STAR® labeling should be extended
to additional types of electronic products, commercial refrigeration
equipment, motors, and other mass-produced products not currently
covered. The commercial building benchmarking and rating program
so far only applies to offices and schools and should be expanded
to other sectors as recommended in the President's plan. And more
funding is needed to expand promotion and training activities in
the ENERGY STAR® new homes and small business programs, to develop
and implement a major program to encourage home energy retrofits,
as well as to increase consumer awareness and market penetration
of energy-efficient ENERGY STAR® products of all types. We recommend
funding increases for the ENERGY STAR® programs of 20% per year
for the next two years.
Conclusion
Energy efficiency is an important
cornerstone for America's energy policy. Taken together, the six policies recommended
here can reduce U.S. energy use by about 20 percent in 2020. These efficiency
policies alone will not solve all of our energy problems--energy use will continue
to grow for a decade or more while these energy-saving policies gradually take
effect. Furthermore, sustaining current rates of energy use into the long-term
future will require new sources of energy supply and distribution. However,
these efficiency policies will substantially reduce our energy problems, making
it easier to find reasonably priced and environmentally acceptable energy supplies
to meet U.S. energy demand. In other words, relative to a supply-focused energy
strategy, a balanced energy strategy that complements efforts to expand supplies
with a major focus on improving efficiency, has a greater chance of success
in terms of ensuring the reliability of the U.S. energy system, reducing economic
costs (since all the efficiency strategies incorporated here save consumers
and businesses money at projected future energy costs), and protecting the environment.
ACEEE is not the only organization
suggesting that national policy makers should increase support for
and adopt new policies to raise energy efficiency. The Council on
Foreign Relations convened an independent task force that recently
completed an in-depth report on our energy challenges and what should
be done about them.(22)
The Council concludes: "Energy policy has underplayed energy efficiency
and demand-management measures for two decades." The Council urges
that we "take a proactive government position on demand management"
including to "review and establish new and stricter CAFE mileage
standards, especially for light trucks."
In addition, the general
public voices strong support for increasing energy efficiency and
a balanced energy strategy. For example, a recent nationwide poll
conducted for the Los Angeles Times found that when people
were asked how to meet our energy needs, "15 percent called for
greater conservation efforts, 17 percent supported development of
new supplies and 61 percent said they favored both steps in equal
measure."(23) Similarly,
in a May 2001 Gallop Poll, 47% of respondents said the U.S. should
emphasize "more conservation" versus only 35% who said we should
emphasize production (an additional 14% volunteered "both"). In
this same poll, when read a list of 11 actions to deal with the
energy situation, the top four actions (supported by 85-91% of respondents)
were "invest in new sources of energy," "mandate more energy-efficient
appliances," "mandate more energy-efficient new buildings," and
"mandate more energy-efficient cars." Options for increasing energy
supply and delivery generally received significantly less support.(24)
Ten years ago the previous Bush
Administration issued its National Energy Strategy. It gave considerable
priority to greater energy efficiency and called for expansion of
energy efficiency R&D and technology deployment programs, new
policies to stimulate utility energy efficiency programs, establishing
new appliance and equipment energy efficiency standards, and new
federal incentives to increase energy efficiency.(25)
Many of these proposals were incorporated in the Energy Policy Act
of 1992, and the budget for and impacts of DOE's and EPA's energy
efficiency programs rose throughout the previous Bush Administration.
The current Bush Administration
has endorsed energy efficiency rhetorically, but their National Energy Plan
is short on specifics when it comes to energy efficiency. The Congress should
address this problem by adopting the specific efficiency policies I have discussed
here today. These policies will benefit our economy and our environment and
will help bring energy supply and energy demand into better balance, helping
to protect U.S. consumers and businesses from supply and price disruptions of
the type we have experienced recently.
That concludes my testimony. Thank
you for the opportunity to present these views.
1.
Interlaboratory Working Group. 2000. Scenarios for a Clean Energy Future.
Washington, D.C.: Interlaboratory Working Group on Energy-Efficient and Clean-Energy
Technologies, U.S. Department of Energy, Office of Energy Efficiency and Renewable
Energy.
2.
H. Geller, S. Bernow, and W. Dougherty. 1999. Meeting America's Kyoto Protocol
Target: Policies and Impacts. Washington, D.C.: American Council for an
Energy-Efficient Economy.
3.
H. Geller, T. Kubo, and S. Nadel. 2001. Overall Savings from Federal Appliance
and Equipment Efficiency Standards. Washington, D.C.: American Council
for an Energy-Efficient Economy.
4. National
Energy Policy Development Group. 2001. National Energy Policy. U.S.
Government Printing Office, Washington, D.C.: National Energy Policy Development
Group.
5. Congressional
enactment of transformer standards will be quicker and easier than the DOE rulemaking
discussed in section A above. Congress first called for a DOE transformer rulemaking
in 1992, but now it is nine-years later and this rulemaking has barely begun.
6.
National Energy Policy Development Group, op. cit. (see note 4).
7.
Preliminary results of an ACEEE analysis to be published July 2001.
8. S.
Nadel and M. Kushler. 2000. "Public Benefit Funds: A Key Strategy for Advancing
Energy Efficiency." The Electricity Journal. October, 74-84.
9. Ibid.
Also EIA. 2000. "Electric Utility Demand Side Management 1999." www.eia/gov/cneaf/electricity/dsm99.
Washington, D.C.: U.S. Department of Energy, Energy Information Administration.
10. Preliminary
results of an ACEEE analysis to be published in July 2001.
11.
J. DeCicco, F. An, and M. Ross. 2001. Technical Options for Improving the
Fuel Economy of U.S. Cars and Light Trucks by 2010-2015. Washington, D.C.:
American Council for an Energy-Efficient Economy. Also, J. Mark. 1999. Greener
SUVs: A Blueprint for Cleaner, More Efficient Light Trucks. Cambridge,
Mass.: Union of Concerned Scientists.
12.
H. Geller. 2001. Strategies for Reducing Oil Imports: Expanding Oil Production
vs. Increasing Vehicle Efficiency. Washington, D.C.: American Council for
an Energy-Efficient Economy..
13.
National Energy Policy Development Group, op. cit. (see note 4).
14.
Geller, Bernow, and Dougherty, op. cit. (see note 2).
15.
H. Geller, S. Nadel, N. Elliott, M. Thomas, and J. DeCicco. 1998.
Approaching the Kyoto Targets: Five Key Strategies for the United States.
Washington, D.C.: American Council for an Energy-Efficient Economy.
16.
[PCAST] President's Committee of Advisors on Science and Technology, Panel on
Energy Research and Development. 1997. Federal Energy Research and Development
for the Challenges of the Twenty-First Century,
Washington, D.C.: Executive Office
of the President.
17.
Office of Energy Efficiency and Renewable Energy. 2000. Clean Energy Partnerships:
A Decade of Success. Washington, D.C.: U.S. Dept. of Energy, Office of
Energy Efficiency and Renewable Energy.
18. EPA.2001.
The Power of Partnerships, Climate Protection Partnerships Division, Achievements
for 2000--In Brief. Washington, D.C.: U.S. Environmental Protection Agency.
19.
National Energy Policy Development Group, op. cit. (see note 4).
20.
PCAST, op. cit. (see note 16).
21.
EPA, op. cit. (see note 18).
22.
Council on Foreign Relations. 2001. Strategic Energy Policy Challenges for
the 21st Century. Forthcoming. Washington, D.C.: Council on
Foreign Relations.
23.
Mark Barabak.2001."Bush is Criticized as Environment Weighed. Los Angeles
Times. April 30, A1.
24.
David W. Moore. 2001. "Energy Crisis: Americans Lean toward Conservation over
Production." www.gallup.com/poll/releases/pr010515.asp. Princeton, N.J.: The
Gallup Organization.
25.
National Energy Strategy: Powerful Ideas for America. 1991. Washington,
D.C.: U.S. Government Printing Office.