Mais les résultats doivent être attendus longtemps et il n'y a généralement pas de temps doxycycline prix L'autre cas, c'est que l'achat d'un ou d'un autre antibiotique dans une pharmacie classique nécessite des dépenses matérielles considérables et pas toutes les personnes ne peuvent acheter des produits pharmaceutiques aussi coûteux.
Nuclear energy policy
Nuclear Energy Policy
Updated March 15, 2006
Resources, Science, and Industry Division
Congressional Research Service
˜ The Library of Congress
Overview of Nuclear Power in the United States
Nuclear Power Plant Safety and Regulation
Domestic Reactor SafetyReactor Safety in the Former Soviet Bloc
Licensing and RegulationReactor SecurityDecommissioningNuclear Accident Liability
Federal Funding for Nuclear Energy Programs
nuclear power plant security. The new Energy
Congress include the implementation of fed-
Policy Act includes several reactor security
eral incentives for new commercial reactors,
provisions, including requirements to revise
the security threats that nuclear plant guard
forces must be able to defeat, regular force-on-
plant safety and regulation, and security
force security exercises at nuclear power
plants, and the fingerprinting of nuclear facil-ity workers.
an expansion of nuclear power. For Depart-
been one of the most controversial aspects of
search and development, the Administration is
nuclear power. The Nuclear Waste Policy Act
seeking $632.7 million for FY2007, an 18.1%
of 1982 (NWPA, P.L. 97-425), as amended in
increase from the FY2006 appropriation. The
request would boost funding for the Advanced
physical characterization of Yucca Mountain
in Nevada as a permanent underground reposi-
tory for high-level waste. The opening of the
Yucca Mountain repository has been delayed
engineering-scale facility to demonstrate new
currently has no announced schedule for the
project. The Administration is requesting
uranium in spent nuclear fuel, as part of the
$544.5 million for the civilian nuclear waste
cial reactors are included in the Energy Policy
disposal and other congressional action will
revive the U.S. nuclear power industry’s
production tax credits, loan guarantees, insur-
considerations. Natural gas- and coal-fired
ance against regulatory delays, and extension
power plants are currently favored over nu-
of the Price-Anderson Act nuclear liability
clear reactors for new generating capacity.
system. The act also authorizes $1.25 billion
However, some electric utilities are seeking
approval of sites for new reactors, and nuclear
clear-hydrogen cogeneration plant at Idaho
industry officials have predicted that the
incentives in the Energy Policy Act of 2005will lead to the first new U.S. reactor orders
The September 11, 2001, terrorist attacks
on the United States raised concern about
Congressional Research Service
˜ The Library of Congress
The Bush Administration’s February 6 budget request for FY2007 includes $632.7
million for Department of Energy (DOE) nuclear energy research and development, an18.1% increase from the FY2006 appropriation. The request would boost funding for theAdvanced Fuel Cycle Initiative (AFCI) from $79.2 million in FY2006 to $243.0 million inFY2007. The higher AFCI funding would allow DOE to begin developing an engineering-scale facility to demonstrate new technology for separating plutonium and uranium in spentnuclear fuel, as part of the Administration’s Global Nuclear Energy Partnership (GNEP). TheAdministration is requesting $544.5 million for the civilian nuclear waste program inFY2007, $50 million above the FY2006 level. The Energy and Water DevelopmentAppropriations Act for FY2006 (P.L. 109-103, H.Rept. 109-275), funding DOE nuclearprograms, was signed by the President on November 19.
President Bush on August 8 signed the Energy Policy Act of 2005 (P.L. 109-58), which
provides strong incentives for the construction of new nuclear power plants. These includeproduction tax credits, loan guarantees, insurance against regulatory delays, and extensionof the Price-Anderson Act nuclear liability system.
The tax credit is available for up to 6,000 megawatts of new nuclear capacity for the
first eight years of operation, up to $125 million annually per 1,000 megawatts. Thatcapacity limit could accommodate five or six new commercial reactors, or it could beallocated among a greater number of reactors (with the tax credit prorated accordingly) bythe Secretary of Energy. Nuclear power plants would also be eligible for federal loanguarantees for up to 80% of construction costs.
Because the nuclear industry has often blamed past nuclear reactor construction cost
overruns on licensing delays, the energy act authorizes the Secretary of Energy to pay for upto $500 million in costs resulting from Nuclear Regulatory Commission (NRC) delays forthe first two new reactors and up to $250 million for the next four.
The Energy Policy Act includes several provisions dealing with security at nuclear
power plants. NRC is required to conduct “force on force” security exercises at each nuclearpower plant at least once every three years (as is its current policy), and is required to revisethe “design basis threat” that nuclear plant security forces must be able to defeat. NRC’sproposed revision was published in the Federal Register
on November 7.
Overview of Nuclear Power in the United States
The U.S. nuclear power industry, while currently generating about 20% of the nation’s
electricity, faces an unclear long-term future. No nuclear plants have been ordered in theUnited States since 1978 and more than 100 reactors have been canceled, including allordered after 1973. No units are currently under active construction; the Tennessee ValleyAuthority’s (TVA’s) Watts Bar 1 reactor, ordered in 1970 and licensed to operate in 1996,
was the most recent U.S. nuclear unit to be completed. The nuclear power industry’stroubles include high nuclear power plant construction costs, public concern about nuclearsafety and waste disposal, and regulatory compliance costs.
High construction costs are perhaps the most serious obstacle to nuclear power
expansion. Construction costs for reactors completed since the mid-1980s ranged from $2-$6 billion, averaging more than $3,000 per kilowatt of electric generating capacity (in 1997dollars). The nuclear industry predicts that new plant designs could be built for less than halfthat amount if many identical plants were built in a series, but such economies of scale haveyet to be demonstrated.
Nevertheless, all is not bleak for the U.S. nuclear power industry, which currently
comprises 103 licensed reactors at 65 plant sites in 31 states. (That number excludes TVA’sBrowns Ferry 1, which has not operated since 1985; TVA is spending about $1.8 billion torestart the reactor by 2007.) Electricity production from U.S. nuclear power plants is greaterthan that from oil, natural gas, and hydropower, and behind only coal, which accounts formore than half of U.S. electricity generation. Nuclear plants generate more than half theelectricity in six states. The near-record 818 billion kilowatt-hours of nuclear electricitygenerated in the United States during 20051 was more than the nation’s entire electricaloutput in the early 1960s, when the first large-scale commercial reactors were being ordered.
Average operating costs of U.S. nuclear plants dropped substantially during the past
decade, and costly downtime has been steadily reduced. Licensed commercial reactorsgenerated electricity at an average of 89.4% of their total capacity in 2005, according toindustry statistics.2
Thirty-nine commercial reactors have received 20-year license extensions from the
Nuclear Regulatory Commission (NRC), giving them up to 60 years of operation. Licenseextensions for 12 more reactors are currently under review, and many others are anticipated,according to NRC (see website at [http://www.nrc.gov/reactors/operating/licensing/renewal/applications.html]).
Industry consolidation could also help existing nuclear power plants, as larger nuclear
operators purchase plants from utilities that run only one or two reactors. Several such saleshave occurred, including the March 2001 sale of the Millstone plant in Connecticut toDominion Energy for a record $1.28 billion. The merger of two of the nation’s largestnuclear utilities, PECO Energy and Unicom, completed in October 2000, consolidated theoperation of 17 reactors under a single corporate entity, Exelon Corporation, headquarteredin Chicago. Exelon and New Jersey-based Public Service Enterprise Group announced amerger on December 20, 2004, that would boost the combined firm’s reactor fleet to 20.
Existing nuclear power plants appear to hold a strong position in the ongoing
restructuring of the electricity industry. In most cases, nuclear utilities have receivedfavorable regulatory treatment of past construction costs, and average nuclear operating costs
1 “World’s Nuclear Performance in 2005 Close to 2004’s,” Nucleonics Week
, Feb. 9, 2006, p. 1.
are currently estimated to be competitive with those of fossil fuel technologies.3 Althougheight U.S. nuclear reactors were permanently shut down during the 1990s, none has beenclosed since 1998, and recent reactor sales could indicate greater industry interest in nuclearplants that previously had been considered marginal. Despite the shutdowns, annual U.S.
nuclear electrical output increased by more than one-third from 1990 to 2005, according tothe Energy Information Administration and industry statistics. The increase resultedprimarily from reduced downtime at the remaining plants, the startup of five new units, andreactor modifications to boost capacity.
The good performance of existing reactors and the relatively high cost of natural gas —
the favored fuel for new power plants for the past 15 years — have prompted renewed utilityconsideration of the feasibility of building new reactors. During 2005, electric utilitiesannounced plans to apply for combined construction permits and operating licenses (COLs)for 11 reactors; however, no commitments have been made to build them if the COLs areissued. The Department of Energy (DOE) is assisting with some of the COL applicationsand site-selection efforts as part of a program to encourage new commercial reactor ordersby 2010, as discussed in the next section.
Strong incentives for building new nuclear power plants are included in the Energy
Policy Act of 2005 (P.L. 109-58), signed by the President on August 8. Particularlysignificant is a tax credit for up to 6,000 megawatts of new nuclear capacity for the first eightyears of operation, up to $125 million annually per 1,000 megawatts. That capacity limitcould make five or six new commercial reactors eligible for the 1.8-cents/kilowatt-hour taxcredit, or the capacity could be allocated among a greater number of reactors (with the taxcredit prorated accordingly) by the Secretary of Energy.
Because the nuclear industry has often blamed licensing delays for past nuclear reactor
construction cost overruns, the new law would authorize the Secretary of Energy to pay forup to $500 million in costs resulting from NRC delays for the first two new reactors and upto $250 million for the next four. Nuclear power plants would also be eligible for federalloan guarantees for up to 80% of construction costs. The Energy Information Administration(EIA) has previously concluded that the nuclear energy tax credit would stimulateconstruction of new commercial reactors,4 and nuclear industry officials recently predictedthat the tax credits and other incentives would prove effective.5 Without such assistance,EIA has projected that no new reactors would be built by 2025.6
Global warming that may be caused by fossil fuels — the “greenhouse effect” — is
cited by nuclear power supporters as an important reason to develop a new generation of
3 Energy Information Administration, Nuclear Power: 12 percent of America’s Generating Capacity,20 percent of the Electricity
, July 17, 2003, at [http://www.eia.doe.gov/cneaf/nuclear/page/analysis/nuclearpower.html].
4 Energy Information Administration, Analysis of Five Selected Tax Provisions of the ConferenceEnergy Bill of 2003
, February 2004.
5 Fialka, John J., “Energy Bill May Revive Nuclear Power in U.S.” Wall Street Journal
, July 28,2005, p. A4.
6 Energy Information Administration, Annual Energy Outlook 2005
, DOE/EIA-0383(2005), February2005, p. 6.
reactors. On May 19, 2003, New Hampshire became the first state to provide emissionscredits for incremental nuclear generating capacity. But the large obstacles noted above muststill be overcome before electric generating companies will risk ordering new nuclear units.
(For more on the outlook for nuclear power, see CRS Report RL31064, Nuclear Power:Prospects for New Commercial Reactors
, by Larry Parker and Mark Holt.)
Nuclear Power Research and Development
For nuclear energy research and development — including advanced reactors, fuel cycle
technology, nuclear hydrogen production, and infrastructure support — DOE is requesting$632.7 million for FY2007, an 18.1% increase from the FY2006 appropriation. The requestwould boost funding for the Advanced Fuel Cycle Initiative (AFCI) from $79.2 million inFY2006 to $243.0 million in FY2007. The higher AFCI funding would allow DOE to begindeveloping an engineering-scale facility to demonstrate new technology for separatingplutonium and uranium in spent nuclear fuel, as part of the Administration’s Global NuclearEnergy Partnership (GNEP). The nuclear energy program is run by DOE’s Office of NuclearEnergy, Science, and Technology.
According to DOE’s budget justification, the nuclear energy R&D program is intended
“to enable nuclear energy to fulfill its promise as a safe, advanced, inexpensive andenvironmentally benign approach to providing reliable energy to all of the world’s people.”Under the Administration’s GNEP initiative, plutonium partially separated from spentnuclear fuel would be recycled into new fuel to expand the future supply of nuclear fuel andpotentially reduce waste. The United States and other advanced nuclear nations would leasenew fuel to other nations that agreed to forgo uranium enrichment, spent fuel recycling (alsocalled reprocessing), and other fuel cycle facilities that could be used to produce nuclearweapons materials; see [http://www.gnep.energy.gov/.]. The leased fuel would then bereturned to supplier nations for reprocessing. Solidified high-level reprocessing waste wouldbe sent back to the nation that had used the leased fuel, along with supplies of fresh nuclearfuel, according to the GNEP concept.
However, opponents have criticized DOE’s nuclear research program as providing
wasteful subsidies to an industry that they believe should be phased out as unacceptablyhazardous and economically uncompetitive. Opponents are particularly concerned aboutGNEP’s emphasis on spent fuel reprocessing, which they see as a weapons proliferation risk,even if weapons-useable plutonium is not completely separated from other spent fuelelements, as envisioned by the Administration.
Nuclear Power 2010.
President Bush’s specific mention of “clean, safe nuclear
energy” in his 2006 State of the Union Address reiterated the Administration’s interest inencouraging construction of new commercial reactors — for which there have been no U.S.
orders since 1978. DOE’s efforts to restart the nuclear construction pipeline are focused onthe Nuclear Power 2010 Program, which will pay up to half of the nuclear industry’s costsof seeking regulatory approval for new reactor sites, applying for new reactor licenses, andpreparing detailed plant designs. The program is intended to provide assistance for advancedversions of existing commercial nuclear plants that could be ordered within the next fewyears.
The Nuclear Power 2010 Program is helping three utilities seek NRC approval for
potential nuclear reactor sites in Illinois, Mississippi, and Virginia. In addition, two industryconsortia are receiving DOE assistance over the next several years to design and license newnuclear power plants. DOE awarded the first funding to the consortia in 2004. The FY2006Energy and Water appropriation included $65.3 million for the program, a $15.7 millionboost over FY2005. DOE’s FY2007 budget request includes $52.3 million for NuclearPower 2010. DOE assistance under the program, including the early site permits, is plannedto reach a multiyear total of $550 million.
The nuclear license applications under the Nuclear Power 2010 program are intended
to test the “one step” licensing process established by the Energy Policy Act of 1992 (P.L.
102-486). Even if the licenses are granted by NRC, the industry consortia funded by DOEhave not committed to building new reactors. Loan guarantees and tax credits to encourageconstruction of new reactors are included in the Energy Policy Act of 2005 (P.L. 109-58).
The 2005 act also authorizes DOE to provide compensation to the first six new reactors forregulatory delays beyond their control; the FY2007 budget request for the Nuclear Power2010 Program includes $1.8 million to develop criteria for such assistance. The twoconsortia receiving COL assistance under the Nuclear Power 2010 program are
! A consortium led by Dominion Resources that is preparing a COL for an
advanced General Electric reactor (after originally considering a Canadiandesign). The proposed reactor would be located at Dominion’s existingNorth Anna plant in Virginia, where the company is seeking an NRC earlysite permit with DOE assistance.
! A consortium called NuStart Energy Development, which includes Exelon
and several other major nuclear utilities, announced on September 22, 2005,that it would seek a COL for a Westinghouse design at the site of TVA’suncompleted Bellefonte nuclear plant in Alabama and for a General Electricdesign at the Grand Gulf plant in Mississippi. DOE has agreed to provideassistance to one of the two NuStart projects.
The advanced Westinghouse reactor selected by NuStart, the AP-1000, is also
competing for a contract in China. If Westinghouse were to prevail over designs beingoffered by France and Russia, the four-reactor contract could help demonstrate thecommercial viability of the new design, which received final design approval from NRC inSeptember 2004. A preliminary commitment to provide almost $5 billion in financialsupport for the proposed China reactor sale was approved February 18, 2005, by the Export-Import Bank of the United States. Critics contend that the tentative Ex-Im financing couldprovide unwarranted subsidies to the nuclear power industry and unwisely transfer U.S.
nuclear technology to China.
Advanced commercial reactor technologies that are not yet close to
deployment are the focus of DOE’s Generation IV Nuclear Energy Systems Initiative, forwhich $31.4 million is being requested for FY2007 — 30% less than the FY2006 request andmore than 40% below the final appropriation of $54.5 million. Most of the proposedreduction would come from the Next Generation Nuclear Plant (discussed below), whichwould drop from $40 million to $23.4 million.
The Generation IV program is focusing on six advanced designs that could be
commercially available around 2020-2030: two gas-cooled, one water-cooled, two liquid-metal-cooled, and one molten-salt concept. Some of these reactors would use plutoniumrecovered through reprocessing of spent nuclear fuel, using technologies being developed bythe Advanced Fuel Cycle Initiative.
Advanced Fuel Cycle Initiative.
The nuclear energy program’s Advanced Fuel
Cycle Initiative (AFCI) is the primary component of GNEP. DOE’s $243 million budgetrequest for AFCI for FY2007 makes up nearly all of the $250 million GNEP program (withthe remaining $7 million requested for program direction). The FY2007 AFCI budgetrequest is more than triple the FY2006 appropriation of $79.2 million.
According to the budget justification, AFCI will develop and demonstrate nuclear fuel
cycles that could reduce the long-term hazard of spent nuclear fuel and recover additionalenergy. Such technologies would involve separation of plutonium, uranium, and other long-lived radioactive materials from spent fuel for re-use in a nuclear reactor or for transmutationin a particle accelerator. Most of the proposed AFCI funding ($155 million) would be foran engineering-scale demonstration of a separations technology called UREX+, in whichuranium and other elements are chemically removed from dissolved spent fuel, leaving amixture of plutonium and other highly radioactive elements. Proponents believe the processis proliferation-resistant, because further purification would be required to make theplutonium useable for weapons.
Removing uranium from spent fuel would eliminate most of the volume of spent
nuclear fuel that would otherwise require disposal in a deep geologic repository, which DOEis developing at Yucca Mountain, Nevada. The UREX+ process also would reduce the heatgenerated by nuclear waste — the major limit on the repository’s capacity — by removingcesium and strontium for separate storage and decay over several hundred years. Plutoniumand other long-lived elements would be destroyed in accelerators or fast reactors (such as thetype under development by the Generation IV program) to reduce the long-term hazard ofnuclear waste. Even if technically feasible, however, the economic viability of such wasteprocessing has yet to be determined, and it still faces significant opposition on nuclearnonproliferation grounds, as noted above.
Nuclear Hydrogen Initiative.
In support of President Bush’s program to develop
hydrogen-fueled vehicles, DOE is requesting $18.1 million in FY2007 for the NuclearHydrogen Initiative, a 25% reduction from the FY2006 level. According to DOE’s FY2005budget justification, “preliminary estimates . indicate that hydrogen produced using nuclear-driven thermochemical or high-temperature electrolysis processes would be only slightlymore expensive than gasoline” and result in far less air pollution.
Nuclear Power Plant Safety and Regulation
Controversy over safety has dogged nuclear power throughout its development,
particularly following the March 1979 Three Mile Island accident in Pennsylvania and the
April 1986 Chernobyl disaster in the former Soviet Union. In the United States,safety-related shortcomings have been identified in the construction quality of some plants,plant operation and maintenance, equipment reliability, emergency planning, and other areas.
In a relatively recent example, it was discovered in March 2002 that leaking boric acid hadeaten a large cavity in the top of the reactor vessel in Ohio’s Davis-Besse nuclear plant. Thecorrosion left only the vessel’s quarter-inch-thick stainless steel inner liner to prevent apotentially catastrophic loss of reactor cooling water. Davis-Besse remained closed forrepairs and other safety improvements until NRC allowed the reactor to restart in March2004.
NRC’s oversight of the nuclear industry is an ongoing issue; nuclear utilities often
complain that they are subject to overly rigorous and inflexible regulation, but nuclear criticscharge that NRC frequently relaxes safety standards when compliance may prove difficultor costly to the industry.
Domestic Reactor Safety.
In terms of public health consequences, the safety record
of the U.S. nuclear power industry in comparison with other major commercial energytechnologies has been excellent. During approximately 2,000 reactor-years of operation inthe United States,7 the only incident at a commercial nuclear power plant that might lead toany deaths or injuries to the public has been the Three Mile Island accident, in which morethan half the reactor core melted. Public exposure to radioactive materials released duringthat accident is expected to cause fewer than five deaths (and perhaps none) from cancer overthe following 30 years. A study of 32,000 people living within 5 miles of the reactor whenthe accident occurred found no significant increase in cancer rates through 1998, althoughthe authors note that some potential health effects “cannot be definitively excluded.”8
The relatively small amounts of radioactivity released by nuclear plants during normal
operation are not generally believed to pose significant hazards, although some groupscontend that routine emissions are risky. There is substantial scientific uncertainty about thelevel of risk posed by low levels of radiation exposure; as with many carcinogens and otherhazardous substances, health effects can be clearly measured only at relatively high exposurelevels. In the case of radiation, the assumed risk of low-level exposure has been extrapolatedmostly from health effects documented among persons exposed to high levels of radiation,particularly Japanese survivors of nuclear bombing in World War II.
The consensus among most safety experts is that a severe nuclear power plant accident
in the United States is likely to occur less frequently than once every 10,000 reactor-yearsof operation. (For the current U.S. fleet of about 100 reactors, that rate would yield anaverage of one severe accident every 100 years.) These experts believe that most severeaccidents would have small public health impacts, and that accidents causing as many as 100deaths would be much rarer than once every 10,000 reactor-years. On the other hand, some
7 Nuclear Engineering International
, “Country averages as at end September 2004,” January 2005,p. 37.
8 Evelyn O. Talbott et al., “Long Term Follow-Up of the Residents of the Three Mile Island AccidentArea: 1979-1998,” Environmental Health Perspectives, published online October 30, 2002, at[http://ehp.niehs.nih.gov/docs/2003/5662/abstract.html].
experts challenge the complex calculations that go into predicting such accident frequencies,contending that accidents with serious public health consequences may be more frequent.
Reactor Safety in the Former Soviet Bloc.
The Chernobyl accident was by far
the worst nuclear power plant accident to have occurred anywhere in the world. At least 31persons died quickly from acute radiation exposure or other injuries, and thousands ofadditional cancer deaths among the tens of millions of people exposed to radiation from theaccident may occur during the next several decades.
According to a 2002 report by the Organization for Economic Cooperation and
Development (OECD), the primary observable health consequence of the accident has beena dramatic increase in childhood thyroid cancer. About 1,000 cases of childhood thyroidcancer were reported in certain regions surrounding the destroyed reactor — a rate that is asmuch as a hundred times the pre-accident level, according to OECD. The death rate foraccident cleanup workers also rose measurably, the organization reported. The OECD reportestimated that about 50,000 square miles of land in Belarus, Ukraine, and Russia weresubstantially contaminated with radioactive cesium from Chernobyl.9
Licensing and Regulation
For many years a top priority of the nuclear industry was to modify the process for
licensing new nuclear plants. No electric utility would consider ordering a nuclear powerplant, according to the industry, unless licensing became quicker and more predictable, anddesigns were less subject to mid-construction safety-related changes required by NRC. TheEnergy Policy Act of 1992 (P.L. 102-486) largely implemented the industry’s licensing goals,but no plants have been ordered.
Nuclear plant licensing under the Atomic Energy Act of 1954 (P.L. 83-703; U.S.C.
2011-2282) had historically been a two-stage process. NRC first issued a construction permitto build a plant, and then, after construction was finished, an operating permit to run it. Eachstage of the licensing process involved complicated proceedings. Environmental impactstatements also are required under the National Environmental Policy Act.
Over the vehement objections of nuclear opponents, the Energy Policy Act of 1992
provides a clear statutory basis for one-step nuclear licenses, which would combine theconstruction permits and operating licenses and allow completed plants to operate withoutdelay if construction criteria were met. NRC would hold preoperational hearings on theadequacy of plant construction only in specified circumstances. DOE’s Nuclear Power 2010initiative (discussed above) proposes to pay up to half the cost of combined construction andoperating licenses for two advanced reactors. The Energy Policy Act of 2005 authorizesfederal payments to the owner of a completed reactor whose operation is delayed byregulatory action.
A fundamental concern in the nuclear regulatory debate is the performance of NRC in
issuing and enforcing nuclear safety regulations. The nuclear industry and its supporters haveregularly complained that unnecessarily stringent and inflexibly enforced nuclear safety
9 OECD Nuclear Energy Agency, Chernobyl: Assessment of Radiological and Health Impacts
regulations have burdened nuclear utilities and their customers with excessive costs. Butmany environmentalists, nuclear opponents, and other groups charge NRC with being tooclose to the nuclear industry, a situation that they say has resulted in lax oversight of nuclearpower plants and routine exemptions from safety requirements.
Primary responsibility for nuclear safety compliance lies with nuclear plant owners, who
are required to find any problems with their plants and report them to NRC. Compliance isalso monitored directly by NRC, which maintains at least two resident inspectors at eachnuclear power plant. The resident inspectors routinely examine plant systems, observe theperformance of reactor personnel, and prepare regular inspection reports. For serious safetyviolations, NRC often dispatches special inspection teams to plant sites.
In response to congressional criticism, NRC has been reorganizing and overhauling
many of its procedures. The Commission is moving toward “risk-informed regulation,” inwhich safety enforcement is guided by the relative risks identified by detailed individualplant studies. NRC’s risk-informed reactor oversight system, inaugurated April 2, 2000,relies on a series of performance indicators to determine the level of scrutiny that eachreactor should receive.
Nuclear power plants have long been recognized as potential targets of terrorist attacks,
and critics have long questioned the adequacy of the measures required of nuclear plantoperators to defend against such attacks. All commercial nuclear power plants licensed byNRC have a series of physical barriers to accessing the operating reactor area, and arerequired to maintain a trained security force to protect them. Following the terrorist attacksof September 11, 2001, NRC began a “top-to-bottom” review of its security requirements.
A key element in protecting nuclear plants is the requirement that simulated terrorist
attack exercises, monitored by NRC, be carried out to test the ability of the plant operator todefend against them. The severity of attacks to be prepared for are specified in the form ofa “design basis threat” (DBT). After more than a year’s review, on April 29, 2003, NRCchanged the DBT to “represent the largest reasonable threat against which a regulated privateguard force should be expected to defend under existing law.” The details of the revisedDBT were not released to the public.
The Energy Policy Act of 2005 requires NRC to revise the DBT based on an assessment
of terrorist threats, the potential for multiple coordinated attacks, possible suicide attacks,and other criteria. NRC’s proposed DBT revision was published in the Federal Register
onNovember 7, 2005. The new energy law also requires NRC to conduct force-on-forcesecurity exercises at nuclear power plants every three years (which was NRC’s previouspolicy), authorizes firearms use by nuclear security personnel (preempting some staterestrictions), establishes federal security coordinators, and requires fingerprinting of nuclearfacility workers.
(For background on security issues, see CRS Report RS21131, Nuclear Power Plants:
Vulnerability to Terrorist Attack
, by Carl Behrens and Mark Holt.)
When nuclear power plants end their useful lives, they must be safely removed from
service, a process called decommissioning. NRC requires nuclear utilities to make regularcontributions to special trust funds to ensure that money is available to remove radioactivematerial and contamination from reactor sites after they are closed. The first full-sized U.S.
commercial reactors to be decommissioned were the Trojan plant in Oregon, whosedecommissioning received NRC approval on May 23, 2005, and Maine Yankee, for whichNRC approved most of the site cleanup on October 3, 2005. The Trojan decommissioningcost $429 million, according to reactor owner Portland General Electric, and the MaineYankee decommissioning cost about $500 million.10 Those costs are within the rangeestimated by a 1996 DOE report of about $150 million to $600 million in 1995 dollars.
The tax treatment of decommissioning funds has been a continuing issue. The Energy
Policy Act of 2005 provides favorable tax treatment to nuclear decommissioning funds,subject to certain restrictions.
Nuclear Accident Liability
Liability for damages to the general public from nuclear incidents is addressed by the
Price-Anderson Act (primarily Section 170 of the Atomic Energy Act of 1954, 42 U.S.C.
2210). The Energy Policy Act of 2005 extends Price-Anderson coverage for new reactorsand new DOE nuclear contracts through the end of 2025.
Under Price-Anderson, the owners of commercial reactors must assume all liability for
nuclear damages awarded to the public by the court system, and they must waive most oftheir legal defenses following a severe radioactive release (“extraordinary nuclearoccurrence”). To pay any such damages, each licensed reactor must carry financialprotection in the amount of the maximum liability insurance available, which was increasedby the insurance industry from $200 million to $300 million on January 1, 2003. Anydamages exceeding that amount are to be assessed equally against all covered commercialreactors, up to $95.8 million per reactor (most recently adjusted for inflation on August 20,2003). Those assessments — called “retrospective premiums” — would be paid at an annualrate of no more than $10 million per reactor, to limit the potential financial burden on reactorowners following a major accident. According to NRC, 103 commercial reactors arecurrently covered by the Price-Anderson retrospective premium requirement.
For each nuclear incident, the Price-Anderson liability system currently would provide
up to $10.9 billion in public compensation. That total includes the $300 million in insurancecoverage carried by the reactor that suffered the incident, plus the $95.8 million inretrospective premiums from each of the 103 currently covered reactors, totaling $10.2billion. On top of those payments, a 5% surcharge may also be imposed, raising the totalper-reactor retrospective premium to $100.6 million and the total available compensation toabout $10.7 billion. Under Price-Anderson, the nuclear industry’s liability for an incidentis capped at that amount, which varies depending on the number of covered reactors, the
10 Sharp, David, “NRC Signs Off On Maine Yankee’s Decommissioning,” Associated Press
, October3, 2005.
amount of available insurance, and an inflation adjustment that is made every five years.
Payment of any damages above that liability limit would require congressional approvalunder special procedures in the act.
The Price-Anderson Act also covers contractors who operate hazardous DOE nuclear
facilities. The liability limit for DOE contractors had been the same as for commercialreactors, excluding the 5% surcharge, except when the limit for commercial reactors dropsbecause of a decline in the number of covered reactors. Price-Anderson authorizes DOE toindemnify its contractors for the entire amount, so that damage payments for nuclearincidents at DOE facilities would ultimately come from the Treasury. However, the law alsoallows DOE to fine its contractors for safety violations, and contractor employees anddirectors can face criminal penalties for “knowingly and willfully” violating nuclear safetyrules.
Under the Price-Anderson extension in the Energy Policy Act of 2005, the total
retrospective premium for each reactor is set at the current level of $95.8 million and thelimit on per-reactor annual payments raised to $15 million, with both to be adjusted forinflation every five years. For the purposes of those payment limits, a nuclear plantconsisting of multiple small reactors (100-300 megawatts, up to a total of 1,300 megawatts)would be considered a single reactor. Therefore, a power plant with six 120-megawattpebble-bed modular reactors would be liable for retrospective premiums of up to $95.8million, rather than $574.8 million. The liability limit on DOE contractors is set at $10billion per accident, also to be adjusted for inflation.
Although DOE is generally authorized to impose civil penalties on its contractors for
violations of nuclear safety regulations, Atomic Energy Act §234A specifically exemptedseven non-profit DOE contractors and their subcontractors. Under the same section, DOEautomatically remitted any civil penalties imposed on non-profit educational institutionsserving as DOE contractors. The Price-Anderson extension eliminates the civil penaltyexemption for future contracts by the seven listed non-profit contractors and DOE’s authorityto automatically remit penalties imposed on all non-profit educational institutions servingas contractors. However, the new law limits the civil penalties against a non-profitcontractor to the amount of management fees paid under that contract.
The Price-Anderson Act’s limits on liability were crucial in establishing the commercial
nuclear power industry in the 1950s. Supporters of the Price-Anderson system contend thatit has worked well since that time in ensuring that nuclear accident victims would have asecure source of compensation, at little cost to the taxpayer. Extension of the act was widelyconsidered a prerequisite for new nuclear reactor construction in the United States.
Opponents contend that Price-Anderson subsidizes the nuclear power industry by protectingit from some of the financial consequences of the most severe conceivable accidents.
Nuclear Waste Management
One of the most controversial aspects of nuclear power is the disposal of radioactive
waste, which can remain hazardous for thousands of years. Each nuclear reactor producesan annual average of about 20 tons of highly radioactive spent nuclear fuel and 50-200 cubic
meters of low-level radioactive waste. Upon decommissioning, contaminated reactorcomponents are also disposed of as low-level waste.
The federal government is responsible for permanent disposal of commercial spent fuel
(paid for with a fee on nuclear power) and federally generated radioactive waste, while stateshave the authority to develop disposal facilities for commercial low-level waste. Spent fueland other highly radioactive waste is to be isolated in a deep underground repository,consisting of a large network of tunnels carved from rock that has remained geologicallyundisturbed for hundreds of thousands of years. Under the Nuclear Waste Policy Act (42U.S.C. 10101 et seq.), Yucca Mountain in Nevada is the only candidate site for the nationalrepository.
Energy Secretary Samuel Bodman told the House Appropriations Committee’s Energy
and Water Development Subcommittee on March 8, 2006, that construction of a repositoryat Yucca Mountain would probably not begin for at least five years. That scenario wouldpush the opening of the repository well past DOE’s previous goal of 2010.
Delays in the Yucca Mountain project prompted the House Appropriations Committee
to include language in its report on the FY2006 Energy and Water appropriations billdirecting DOE “to begin the movement of spent fuel to centralized interim storage at one ormore DOE sites within FY2006.”11 The interim storage requirement was not included in theenacted Energy and Water bill, but the measure does provide $50 million for DOE to developa spent nuclear fuel recycling plan. The detailed program plan is to be submitted by March31, 2006, and a “site selection competition” for an integrated reprocessing facility is to beginby June 30, 2006. A reprocessing site is to be selected in FY2007, with construction to beginin FY2010. “The site competition should not be limited to DOE sites, but should be opento a wide range of other possible federal and non-federal sites on a strictly voluntary basis,”according to the conference report. Applicants for a reprocessing facility can receive up to$5 million per site, up to a total of $20 million, to prepare detailed proposals.
In submitting its FY2007 budget request, the Administration announced that it was
preparing draft legislation to address problems in the civilian nuclear waste program,possibly including provisions for interim storage. The Administration is requesting $544.5million for the waste program in FY2007, $50 million above the FY2006 level. The wasteprogram is run by DOE’s Office of Civilian Radioactive Waste Management (OCRWM).
The delays in the Yucca Mountain program follow a July 9, 2004, ruling by the U.S.
Court of Appeals for the District of Columbia Circuit that overturned a key aspect of theEnvironmental Protection Agency’s (EPA’s) regulations for the planned repository. Thethree-judge panel ruled that the 10,000-year compliance period was too short, but it rejectedseveral other challenges to the rules. EPA proposed a new standard on August 9, 2005, thatwould allow higher radiation exposure from the repository after 10,000 years.
The quality of scientific work at Yucca Mountain was called into question by DOE’s
March 16, 2005, disclosure of e-mails from geologists indicating that some quality assurancedocumentation had been falsified. DOE currently is determining whether the problems affect
the completeness and accuracy of information submitted to NRC in support of the plannedYucca Mountain license application.
Further delays in the nuclear waste program could prove costly under a settlement
announced August 10, 2004, between the Department of Justice and Exelon Corporation,which had filed a breach-of-contract suit over DOE’s failure to begin accepting spent fuelby 1998 as required by NWPA. Under the settlement, Exelon is to be reimbursed from thefederal Judgment Fund for its spent fuel storage costs caused by the waste program delays.
Exelon estimates that it will receive up to $600 million if waste acceptance does not beginuntil 2015. Several other utilities have also negotiated settlements, and the Tennessee ValleyAuthority on January 31, 2006, won a $34.9 million judgment from the U.S. Court of FederalClaims for waste storage costs incurred through September 2004. Numerous other utilityclaims are pending.12
(For further details, see CRS Issue Brief IB92059, Civilian Nuclear Waste Disposal
Federal Funding for Nuclear Energy Programs
The following tables summarize current funding for DOE nuclear fission programs and
NRC. The sources for the funding figures are Administration budget requests and committeereports on the Energy and Water Development Appropriations Acts, which fund all thenuclear programs. President Bush submitted his FY2007 funding request February 6, 2006.
The FY2006 energy and water conference report was approved by Congress on November14, 2005, and signed into law on November 19, 2005 (H.Rept 109-275, P.L. 109-103).
Table 1. Funding for the Nuclear Regulatory Commission
(budget authority in millions of current dollars)
Nuclear Regulatory Commission
— Fuel Facility Licensing and Inspection
— Spent Fuel Storage and Transportation
Total NRC budget Authority
— Offsetting fees
12 Hiruo, Elaine, and Tom Harrison. “TVA, Negotiated Settlements Add to Taxpayers’ Yucca Mt.
. March 13, 2006. p. 11.
Table 2. DOE Funding for Nuclear Activities
(budget authority in millions of current dollars)
Nuclear Energy (selected programs)
University Reactor Assistance
Civilian Nuclear Waste Disposalb
a. Funded under “other defense activities” and naval reactors until FY2007. In FY2007 request, all
infrastructure except $75.9 million for Idaho Sitewide Safeguards and Security is transferred to theEnergy Supply and Conservation account.
b. Funded by a 1-mill-per-kilowatt-hour fee on nuclear power, plus appropriations for defense waste disposal
H.R. 6 (Barton)
Energy Policy Act of 2005. Omnibus energy legislation that provides incentives for
new nuclear power plants, extends Price-Anderson nuclear liability system, authorizesnuclear R&D programs, and requires security measures at nuclear facilities. Introduced April18, 2005; referred to multiple committees. Passed House April 21, 2005, by vote of 249-183.
Passed Senate June 28, 2005, by vote of 85-12. Conference report (H.Rept. 109-90) passedHouse July 28, 2005, by vote of 275-156; passed Senate July 29 by vote of 74-26. Signed byPresident August 8, 2005 (P.L. 109-58).
H.R. 526 (Berkley)
Redirect the Nuclear Waste Fund established under the Nuclear Waste Policy Act of
1982 into research, development, and utilization of risk-decreasing technologies for theonsite storage and eventual reduction of radiation levels of nuclear waste, and for otherpurposes. Introduced February 2, 2005; referred to Committees on Energy and Commerce;Science; Ways and Means.
H.R. 966 (Saxton)
Require the Nuclear Regulatory Commission to consider certain criteria in relicensing
nuclear facilities, and to provide for an independent assessment of the Oyster Creek NuclearGenerating Station by the National Academy of Sciences prior to any relicensing of thatfacility. Introduced February 17, 2005; referred to Committee on Energy and Commerce.
H.R. 2419 (Hobson)
Energy and Water Development Appropriations for FY2006. Includes funding for DOE
nuclear programs. Introduced and reported as an original measure by the HouseAppropriations Committee May 18, 2005 (H.Rept. 109-86). Passed House May 24, 2005,by vote of 416-13. Passed Senate July 1, 2005, by vote of 92-3 (S.Rept. 109-84). Signed byPresident November 19, 2005 (P.L. 109-103).
H.R. 4538 (Matheson)/S. 2099 (Reid)
Spent Nuclear Fuel On-Site Storage Security Act of 2005. Requires commercial nuclear
power plants to transfer spent fuel from pools to dry storage casks and then convey title tothe Secretary of Energy. Introduced December 14, 2005. House bill referred to Committeeon Energy and Commerce; Senate bill referred to Committee on Environment and PublicWorks.
H.R. 4825 (Weller)/S. 2348 (Obama)
Nuclear Release Notice Act of 2006. Requires notification of federal and state agencies
about releases of radioactive materials above allowable limits. Introduced March 1, 2006;referred to House Committee on Energy and Commerce and Senate Committee onEnvironment and Public Works.
S. 10 (Domenici)
Energy Policy Act of 2005. Includes provisions on electricity regulation and reliability,
energy research and development, alternative fuels, and energy access to public lands.
Introduced as an original bill and reported June 9, 2005, by the Committee on Energy andNatural Resources (S.Rept. 109-78). Ordered reported May 26 by a vote of 21-1. Textsubstituted for H.R. 6.
S. 387 (Hagel)
Amend the Internal Revenue Code of 1986 to provide tax incentives for investment in
greenhouse gas intensity reduction projects, including a production tax credit for nuclear-generated electricity. Introduced February 15, 2005; referred to Committee on Finance.
S. 388 (Hagel)
Amend the Energy Policy Act of 1992 to direct the Secretary of Energy to carry out
activities that promote the adoption of technologies that reduce greenhouse gas intensity,including advanced nuclear power plants, and to provide credit-based financial assistance andinvestment protection for projects that employ advanced climate technologies or systems.
Introduced February 15, 2005; referred to Committee on Energy and Natural Resources.
Sutter Health Cancer Service Line: Prostate Committee Chapter 12. Recovery & Coping with the Effects of Prostate Cancer With contributions from Nancy L. Brown, Ph.D., Palo Alto Medical Foundation Research Institute; and Stan Rosenfeld, Patient Advocate, Marin Cancer Institute, Marin General Hospital. Recovery Every treatment option will have different issues related to recove
Infertility Benefits at a Glance This document is a general overview of covered benefits for infertility services under BlueCare and Century Preferred Health Plans as described in Public Act 05-196. For purposes of this overview, infertility means the condition of a presumably healthy individual who is unable to conceive or produce conception or sustain a successful pregnancy during a