Pranab to head panel on coal-environment tussle
The electricity generated from the proposed 9,900 MW Jaitapur Nuclear Power Project (JNPP) will be double, even triple the cost of electricity from coal- or gas-fired plants, according to a report.Depending on the cost of capital, the unit cost of electricity from Jaitapur would come to Rs5 to Rs8 per kilowatt per hour.The same unit from a thermal or gas operated plant costs Rs2 to 2.5 only, says the report published by the Coalition for Nuclear Disarmament and Peace (CNDP).
Troubled Galaxy Destroyed Dreams, Chapter 583
Palash Biswas
http://indianholocaustmyfatherslifeandtime.blogspot.com/
http://basantipurtimes.blogspot.com/
Pranab to head panel on coal-environment tussle
Jaitpur Nuclear Power Plant project though seems to be beneficial for few years will become big problem later.It will create ecological disturbance in marine ecosystem of konkan.It'll also have chronic impact on local people.An impact assessment report by Tata Institute of Social Sciences (TISS) here has come down heavily on the proposed nuclear power plant at Jaitapur in Ratnagiri district of Maharashtra stating that the project will have a "huge negative impact on social and environment development" as it is sitting on a high to moderate severity earthquake zone.
The French ambassador to India met Maharashtra chief minister Prithviraj Chavan in the wake of the agitation against the 10,000-Mw Jaitapur nuclear power project in Ratnagiri district. The reactors are to come from Areva of France, and the company's India head, Arthur de Montalembert French firm was also present.
Project critics and opponents have raised safety issues on Areva's Evolutionary Pressurised Reactors (EPRs). Six of them, if 1,650-Mw each, will be installed at Jaitapur. The Nuclear Power Corporation (NPC) and the state and central governments have strongly defended the EPR technology. NPC and Areva have agreed on preliminary contracts and are expected to sign a definitive agreement by June.
Chavan is expected to visit the project site on February 26. His office told Business Standard: "The Maharashtra government has assured all possible assistance for the project development. The CM informed the French ambassador about his meeting with stakeholders on January 18 to discuss various issues pertaining to the project."
The French Consul-General's office and that of the Areva India declined to comment on the meeting. Critics say EPRs would use sea water as a coolant and this would result in a sharp rise in temperature when superheated water would be discharged into the sea. This would also adversely affect the local fishing community. They have also raised doubts on Areva's record and its finances.
The ambassador and the Areva India chief told the CM the design of the EPRs' cooling chain takes into account strict Indian regulations and would keep the cooling seawater temperature increase below 7°C. Comprehensive sea flow models have been computed by NPC to verify proper lukewarm sea water dilution. Further, the EPR has modern safety features designed to contain the consequences of an unlikely accident to the limits of the plant itself, avoiding negative impact on the environment around.
They added that Areva had consistently shown commitment to working in cooperation with national authorities to achieve the highest levels of safety, and no regulatory body anywhere had questioned the overall level of safety of the EPRs.
Also, goes the defence, the EPR site would generate its own fresh water. Neither the water table nor other available fresh water resources would be tapped. Instead, the facility would rely on its own desalination plant, converting sea water into demineralised water for reactor operations, and into fresh potable water for the other needs on site and in the colony.
The electricity generated from the proposed 9,900 MW Jaitapur Nuclear Power Project (JNPP) will be double, even triple the cost of electricity from coal- or gas-fired plants, according to a report.Depending on the cost of capital, the unit cost of electricity from Jaitapur would come to Rs5 to Rs8 per kilowatt per hour.The same unit from a thermal or gas operated plant costs Rs2 to 2.5 only, says the report published by the Coalition for Nuclear Disarmament and Peace (CNDP).
It also mentions that the capital cost of setting up JNPP, which consists of six European Pressurised Reactors (EPRs), would involve Rs200,000 crore of public money.
The report, prepared by eminent journalists and activists such as Praful Bidwai, Rafeeq Ellias and Vaishali Patil, raises serious questions about the economic cost of the project.
The reactors, which have not been commissioned fully anywhere else in the world before, are expected to cost Rs21 crore per megawatt (MW) of energy they produce. This figure is conditional upon the fact that the ongoing construction of EPR at Olkiluoto, Finland, does not escalate beyond the estimated 5.7 billion euros.
The cost estimate, however, does not include fuel or maintenance costs, storage of hundreds of tonnes of the nuclear waste generated annually; also the cost of reactor decommissioning, which could amount to one-third to one-half of the construction cost.
It also does not include the extensive additional physical security costs, including anti-aircraft batteries and the extra Coast Guard deployment. In addition, there are environmental costs, and health costs on miners, plant workers, and the public living close to nuclear installations, and the associated medical expenses.
The Nuclear Power Corporation of India Limited (NPCIL) has been maintaining right beginning that the EPR technology is completely safe and the it has taken all possible precautions to ensure the safety of the project.
However, the report which has also scrutinised the EPR technology, has listed out countries and organisations which have raised serious objections on the reactor's design.
It is mentioned that the French nuclear safety agency itself has noted several problems in the reactor design, while the US Nuclear Regulatory Commission (NRC) has delayed its design certification to the EPR from June 2012 to February 2013.
"(In Finland) Several safety, design and construction problems have pushed its start-up to the second half of 2013 — a delay of 42 months, with a cost escalation of 90%," said the report.
http://www.dnaindia.com/mumbai/report_power-from-jaitapur-nuclear-plant-wont-come-cheap_1507543
04 February 2011 | |
Prime Minister Manmohan Singh has announced the constitution of a group of ministers (GoM) headed by finance minister Pranab Mukerhjee to find a resolution to the issue of 'go' and 'no go' areas in coal producing areas. The constitution of the GoM was notified on Thursday and it is likely to meet within a week. The union cabinet had decided on 13 January to refer to a GoM the controversial issue following sharp differences between the environment, coal, and power ministries over the issue of allowing mining of coal in some 'sensitive' areas. The other members of the GoM are home minister P Chidambaram, agriculture minister Sharad Pawar, law minister Veerapan Moily, commerce and industry minister Anand Sharma, surface transport minister C P Joshi, environment minister Jairam Ramesh, coal minister Sriprakash Jaiswal, and Planning Commission deputy chairman Montek Singh Ahluwalia. ''The GoM will meet in the next three-four days or within a week to deliberate on issues like 'go' and 'no-go', among others,'' Jaiswal told reporters on the sidelines of an Assocham event in New Delhi. ''The main issues to be discussed at the meeting are in relation to the environment and forest issues with regard to the coal blocks, rehabilitation and resettlement policy, and offtake.'' Rajasthan concerned Even as the union government announced the formation of the GoM, Rajasthan chief minister Ashok Gehlot on Thursday asked it to set aside the coal mines allotted to the state from the 'no-go zone' to ensure continuous supply of coal to power plants. |
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http://www.domain-b.com/industry/power/20110204_coal_environment.html
The TISS findings in 'Perception Matter- People's Report- Social Impact Assessment of Jaitapur Madban Nuclear Power Plant' also suggested that the government subverted facts and called the fertile agricultural land as "barren".
The report compiled by a TISS social scientist Mahesh Kamble highlighted the people's demand for more transparency from the government on the project and also their concern about building nuclear power plants on earthquake Zone-IV.
It also indicated that the project - which requires about 968 hectares of land spread over five villages – will have a huge negative impact on the social as well as environmental development of not just these villages and the surrounding areas, but also on the Konkan region in general.
According to sources, the EIA report has detailed mitigation and environmental management plans for dealing with environmental impact while looking at the occupational health, air, water, land and noise, radiological pollution and marine environment.
When asked if the ministry had set a deadline for clearing the project, Ramesh said, "There is no deadline for the approval of the project but since the French President is coming in December, we hope to take a decision on it before his arrival."
However,RASHME SEHGA NEW DELHI Activists of the Konkan Bachao Samiti (KBS) have written to the ministry of science & technology and the ministry of forests & environment highlighting their environmental apprehensions on the setting up of the proposed Jaitapur nuclear power plant.
The Jaitpur plant "is the first result of the nuclear agreement that is going to be visible. It would give France-India relationship completely different dimensions, so I would only hope that the concerns raised by locals against the project are adequately addressed," the Minister said.
The six-unit nuclear power project is being set up at Jaitpur in Ratnagiri using the technological know-how from France but there has been strong opposition from local NGOs who are demanding that it be scrapped citing radiation threat and alleged inadequate land compensation.
A nod by Ramesh's Ministry to the project before the French President's visit would save the authorities from an embarrassment as signing of a final agreement on the plant is understood to be high on Sarkozy's agenda.
The Minister, while maintaining that the project based on clean energy represents a certain strategic investment, made it clear that there was no question of an eyewash.
"We will look at the EIA report very very carefully," he said.
The final Environmental Impact Assessment (EIA) report comprising of two voluminous volume was submitted yesterday to the Environment Ministry by National Environmental Engineering Research Institute (NEERI) after conducting public hearing at the site.
The Ministry's Expert Appraisal Committee (EAC) will now decide the fate of the project being constructed by Nuclear Power Corporation of India Ltd in 692 hectares of land.
It is one of the largest proposed projects in Asia with the configuration of 6x1650 MW.
Ramesh said safety related issues with nuclear reactors will be looked at by the Atomic Energy Regulatory Board and not by Environment Ministry.
"I have told (NPCIL) and conveyed National Security Advisor (NSA) also who is dealing the project that all the issues of land acquisition and compensation have to be resolved satisfactorily. One assumes the public sector company to be doing its job well," the Minister said.
When asked if the ministry has set a deadline for deciding the fate of the project, Ramesh said, "there is no deadline for the approval of the project but since the French President is coming in December we hope to take a decision on it before his arrival."
According to sources, the EIA report has detailed mitigation and environmental management plans for dealing with environmental impact while looking at the occupational health, air, water, land and noise, radiological pollution and marine environment.
NEW DELHI, October 6, 2010
Ramesh hints at clearance for Jaitpur N plant before Sarkozy visit
Environment Minister Jairam Ramesh on Wednesday voiced hope that concerns raised by locals on a nuclear power plant to be built in collaboration with France in Maharashtra would be addressed and decision taken on the project before President Nicolas Sarkozy's visit in December.
The Jaitpur plant "is the first result of the nuclear agreement that is going to be visible. It would give the France-India relationship completely different dimensions, so I would only hope that the concerns raised by locals against the project are adequately addressed," the Minister said.
The six-unit nuclear power project is to be set up at Jaitpur in Ratnagiri using the technological know-how from France but there has been strong opposition from local NGOs who are demanding that it be scrapped citing radiation threat and alleged inadequate land compensation.
A nod by Ramesh's Ministry to the project before the French President's visit would save the authorities from an embarrassment as signing of a final agreement on the plant is understood to be high on Sarkozy's agenda.
The Minister, while maintaining that the project based on clean energy represents a certain strategic investment, made it clear that there was no question of an eyewash.
"We will look at the EIA report very, very carefully," he said.
The final Environmental Impact Assessment (EIA) report comprising of two extensive volumes was submitted on Tuesday to the Environment Ministry by National Environmental Engineering Research Institute (NEERI) after conducting public hearing at the site.
The Ministry's Expert Appraisal Committee (EAC) will now decide the fate of the project being constructed by Nuclear Power Corporation of India Ltd in 692 hectares of land. It is one of the largest proposed projects in Asia with the configuration of 6x1650 MW.
Ramesh said safety related issues with nuclear reactors will be looked at by the Atomic Energy Regulatory Board and not by Environment Ministry. "I have told (NPCIL) and conveyed National Security Advisor (NSA) also who is dealing the project that all the issues of land acquisition and compensation have to be resolved satisfactorily. One assumes the public sector company to be doing its job well," the Minister said.
When asked if the ministry has set a deadline for deciding the fate of the project, Ramesh said, "There is no deadline for the approval of the project but since the French President is coming in December we hope to take a decision on it before his arrival."
Jaitapur plant poses no threat, says Kakodkar
Our Bureau
Mumbai, Jan. 18
The proposed 10,000 MW nuclear plant at Jaitapur will not lead to additional nuclear radiation in the surrounding area. The amount of radiation emanating from the plant would be minuscule in comparison to the natural radiation occurring in the environment, said Dr Anil Kakodkar, former Chairman of the Atomic Energy Commission.
He was addressing a public meeting aimed at removing misconception about the plant on Tuesday. The meeting was organised by the State Government and the Department of Atomic Energy.
Dr Kakodkar said the natural radiation dose increases if a person moves from sea level to a hilly region. The dose one receives in the hilly region is much more than that at the boundary of a nuclear plant.
'No recycling'
He said that at present there are no plans for setting up a nuclear fuel recycling facility at Jaitpaur, which could give out more radiation.
"Fuel would be brought from outside and the spent fuel would be sent out of the plant for processing. Only a fraction of waste which gives out low-level radiation will be processed at the plant," Dr Kakodkar said.
Dr Kakodkar said that if at all a nuclear fuel recycling facility is considered at the site, the Department of Atomic Energy has all the technology to handle fuel reprocessing in a safe manner.
He added that the European Pressurised Reactor (EPR), which will be supplied by the French company Areva for Jaitapur, is safe and have four layers of additional safety.
"The EPR is an advanced version of the Pressurise Heavy Water Reactor (PHWR) and globally 80 per cent of the reactors are PHWR," Dr Kakodkar said.
http://www.24dunia.com/english-news/shownews/0/Jaitapur-plant-poses-no-threat-says-Kakodkar/8821908.html
Our Bureau
New Delhi, Jan. 18
Even as it termed the construction at Lavasa Hill City as 'unauthorised' and 'environmentally damaging,' the Ministry of Environment and Forests (MOEF) said it is willing to consider the project on certain terms and conditions. These include a hefty penalty and the creation of an environment restoration fund.
The Ministry, in its final order submitted to the Bombay High Court on Tuesday, directed that status quo be maintained on the project and no construction activity be undertaken by Lavasa.
The project is promoted by Lavasa Corporation Ltd (LCL), a subsidiary of Hindustan Construction Company Ltd. Shares of HCC lost 4 per cent to close at Rs 39.80 on the BSE in a flattish market.
The Ministry said it could consider approving the project "because of the investments already incurred, third party rights which are accrued, the various steps taken for establishment of a comprehensive hill station development, the employment generated and the claimed uplift of the area under consideration."
However, it imposed certain conditions, including Lavasa setting up an Environmental Restoration Fund (ERF) "with sufficiently large corpus."
The corpus would be managed by an independent body under the supervision of the Ministry. However, the Ministry did not specify the quantum of the 'substantial penalty' or the size of the ERF corpus.
The Ministry said the imposition of stringent terms and conditions was to ensure that no further environmental degradation takes place.
For ensuring immediate and proper compliance with its conditions, the Ministry directed Lavasa to submit a detailed project report and plans and audited statements since inception.
"Further, based on the LCL response and if LCL gives relevant and credible material…MOEF is prepared to consider the project on merits subject to the imposition of the penalties…and the formulation of a comprehensive Environmental Impact Assessment report and Management Plan for this project," the Ministry said.
Response to notice
In response to representations against the project, the Ministry had issued a show-cause notice to Lavasa on November 25, asking why it did not obtain environmental clearances. Lavasa challenged the notice in the Bombay High Court.
Tuesday's order came after a technical team from the Ministry visited the project site early this month, on directions of the court. The next hearing in the case is set for January 27.
More on jurisdiction: Lavasa Reacting to the Ministry's order, Lavasa said in a statement that the order was more on jurisdiction rather than on environment issues. It felt that "MOEF does not have objective and measurable norms." It also felt that "no weightage or consideration was given to the huge body of data submitted by the company on environment protection and enhancement initiatives.
vishwa@thehindu.co.in
http://www.24dunia.com/english-news/shownews/0/Jaitapur-plant-poses-no-threat-says-Kakodkar/8821908.html
French Company Designs Underwater Nuclear Plant
Nuclear power plants could be located underwater, as one of France's biggest shipbuilders is working with a large builder of nuclear plants to develop a reactor that could be placed up to 100 meters (328 feet) below the surface.View Full Image
DCNS
An artists' conception of the Flexblue reactor, which could sit on the sea floor up to 100 meters down.
The concept, called Flexblue, is being developed by DCNS in concert with AREVA. DCNS is a shipbuilder that is known for many of the advanced ships in the French navy, including the nuclear submarines. AREVA is a large builder of nuclear power plants.
DCNS has been studying the Flexblue concept for two years, according to a press release. The idea is to build a reactor that can supply about 100 megawatts and be located offshore. The plants are similar to those used in nuclear submarines.
A regular nuclear power plant on land produces about 1,000 megawatts, which can supply big cities. But there is demand, the company says, for smaller, much cheaper reactors that could serve areas where infrastructure is not as advanced. The reactor has the ability to essentially drop into place without having to build extensive support structures.
DCNS says it will study the concept further for the next two years, and will work with AREVA, Electricité de France and the CEA, the French Atomic and Alternative Energies Commission, on the next phase of Flexblue development. This will include detailed reviews of technical and production options, market potential, nuclear proliferation issues, and safety of power plants on the seafloor. DCNS says it hopres to show that the safey of the Flexblue reactor is as good as that of its land-based cousins.
Read more: http://www.ibtimes.com/articles/103723/20110121/french-company-designs-underwater-nuclear-plant.htm#ixzz1DwVVLC2x
Nilekani to Head Task Force on Direct Subsidies
The government today constituted an inter-ministerial task force under UIDAI chairman Nandan Nilekani for evolving mechanisms to provide direct subsidies on kerosene, cooking gas (LPG) and fertilisers to intended beneficiaries.
"In order to evolve a suitable mechanism for direct subsidies to individuals and families who are entitled to kerosene, LPG and fertiliser ... The Government of India has constituted a Task Force," the Finance Ministry said in a release.
Former chief of IT major Infosys, Nilekani is currently the chairman of the Unique Identification Authority of India (UIDAI).
He is also handling several government IT projects including one on the proposed Goods and Services Tax (GST).
The government has constituted the task force in light of the "overwhelming evidence" that the present policy of giving subsidy on kerosene is resulting in "waste, leakage, adulteration and inefficiency", the statement said.
Government provides Kerosene at subsidised prices to BPL families under the Public Distribution System (PDS).
"Therefore, it is imperative that the system of delivering the subsidised kerosene be reformed urgently," it added.
Similarly, the statement said that the system of provision and delivery of subsidised LPG to intended beneficiaries needs to be reformed.
Fertiliser is given to farmers at subsidised rates.
"It is not possible to differentiate the segments for which the subsidy should be given in this (fertiliser) sector. There is a need to evolve a suitable mechanism for direct subsidies to individuals who are entitled to them," it said.
The Task Force would submit its interim report within four months of its constitution.
The recommendations of the report would be implemented on a pilot basis by the concerned ministries under the supervision of the Task Force in the following six months from the date of submission of the interim report, it added.
Besides, the Task Force would evolve a model of direct transfer of subsidies on these items by re-engineering existing systems, processes and procedures in the implementation process.
The panel has also been asked to design appropriate IT systems and aligning these (the issue of subsidies) with the issuance of UID numbers, and bringing about changes in the administration and supply chain management.
Besides Unique Identification Authority of India (UIDAI) chairman, the team will consist of secretaries from finance, chemicals & fertilizers, agriculture, food & public distribution, petroleum & natural Gas and rural development along with DG UID Authority.
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Work on Jaitpur project likely to commence next year | |
New Delhi, Jan 24 (PTI) | |
Suggesting that hurdles in the path were being overcome, NPCIL today said work on two French- built nuclear power plants is likely to begin at Jaitapur in Maharashtra next year. | |
"The commencement of work of the first two units is planned for the year 2012," Sudhinder Thakur, Distinguished Scientist & Fellow of NPCIL, said in a statement. Nuclear Power Corporation of India Limited (NPCIL), in collaboration with French company Areva, plans to build six nuclear power plants of 1,650 MW each at Jaitapur. The Jaitapur project received a conditional go ahead from the Union Ministry of Environment and Forests last year and is battling issues related to land acquisition. "The land acquisition and related relief and rehabilitation issues are being handled in consultation with the state (Maharashtra) government," Thakur said. The environment impact assessment report for the Jaitapur nuclear power project was prepared by National Environmental Engineering Research Institute (NEERI). "There are no green issues at Jaitapur. With the clearance of the project by the Union Ministry of Environment and Forests, NPCIL is in full gear for compliance of the requirements," Thakur said. The Jaitapur project is a result of the India-France civil nuclear cooperation agreement, the first pact India signed after getting a waiver from the Nuclear Suppliers' Group (NSG) guidelines in September 2008 to engage in global nuclear trade. |
The truth behind India's nuclear renaissance
Jaitapur's French-built nuclear plant is a disaster in waiting, jeopardising biodiversity and local livelihoods
- Praful Bidwai
- guardian.co.uk, Tuesday 8 February 2011 23.00 GMT
- Article history
The global "nuclear renaissance" touted a decade ago has not materialised. The US's nuclear industry remains starved of new reactor orders since 1973, and western Europe's first reactor after Chernobyl (1986) is in serious trouble in Finland – 42 months behind schedule, 90% over budget, and in bitter litigation. But India is forging ahead to create an artificial nuclear renaissance by quadrupling its nuclear capacity by 2020 and then tripling it by 2030 by pumping billions into reactor imports from France, Russia and America, and further subsidising the domestic Nuclear Power Corporation of India (NPCIL).
The first victim of this will be an extraordinarily precious ecosystem in the Konkan region of the mountain range that runs along India's west coast. This is one of the world's biodiversity "hotspots" and home to 6,000 species of flowering plants, mammals, birds and amphibians, including 325 threatened ones. It is the source of two major rivers. Botanists say it's India's richest area for endemic plants. With its magical combination of virgin rainforests, mountains and sea, it puts Goa in the shade.
NPCIL is planning to install six 1,650-MW reactors here, at Jaitapur in Maharashtra's Ratnagiri district, based on the European Pressurised Reactor (EPR) design of the French company Areva – the very same that's in trouble in Finland. The government has forcibly acquired 2,300 acres under a colonial law, ignoring protests. As construction begins, mountains will be flattened, trees uprooted, harbours razed, and a flourishing farming, horticultural and fisheries economy destroyed, jeopardising 40,000 people's survival.
To rationalise this ecocide, the government declared the area "barren". This is a horrendous lie, says India's best-known ecologist Madhav Gadgil, who heads the environment ministry's expert panel on its ecology. As I discovered during a visit to Jaitapur, there's hardly a patch of land that's not green with paddy, legumes, cashew, pineapple and coconut. So rich are its fisheries that they pay workers three times the statutory minimum wage, a rarity in India.
Jaitapur's villagers are literate. They know about Chernobyl, radiation, and the nuclear waste problem. They have seen films on injuries inflicted on villagers like them by Indian uranium mines and reactors – including cancers, congenital deformities and involuntary abortions. They don't want the Jaitapur plant. Of the 2,275 families whose land was forcibly acquired, 95% have refused to collect compensation, including one job per family. The offer provokes derision, as does Indo-French "co-operation". When Nicolas Sarkozy visited India to sell EPRs, Jaitapur saw the biggest demonstration against him.
The EPR safety design hasn't been approved by nuclear regulators anywhere. Finnish, British and French regulators have raised 3,000 safety issues including control, emergency-cooling and safe shutdown systems. A French government-appointed expert has recommended modifications to overcome the EPR's problems. Modifications will raise its cost beyond €5.7bn. Its unit generation costs will be three times higher than those for wind or coal. India had a nightmarish experience with Enron, which built a white elephant power plant near Jaitapur, nearly bankrupting Maharashtra's electricity board.
Jaitapur's people are more concerned about being treated as sub-humans by the state, which has unleashed savage repression, including hundreds of arrests, illegal detentions and orders prohibiting peaceful assemblies. Eminent citizens keen to express solidarity with protesters were banned, including a former supreme court judge, the Communist party's secretary and a former Navy chief. Gadgil too was prevented. A former high court judge was detained illegally for five days. Worse, a Maharashtra minister recently threatened that "outsiders" who visit Jaitapur wouldn't be "allowed to come out" (alive).
This hasn't broken the people's resolve or resistance. They have launched their own forms of Gandhian non-cooperation and civil disobedience. Elected councillors from 10 villages have resigned. People boycotted a 18 January public hearing in Mumbai convened to clear "misconceptions" about nuclear power. They refused to hoist the national flag, as is traditionally done, on Republic Day (26 January). They have decided not to sell food to officials. When teachers were ordered to teach pupils about the safety of nuclear reactors, parents withdrew children from school for a week.
The peaceful campaign, with all its moral courage, hasn't moved the government. It accepted an extraordinarily sloppy environmental assessment report on Jaitapur, which doesn't consider biodiversity and nuclear safety, or even mention radioactive waste. It subverted the law on environment-related public hearings. It cleared the project six days before Sarkozy's visit.
Why the haste? India's nuclear establishment has persistently missed targets and delivered a fraction of the promised electricity – under 3% – with dubious safety. It was in dire straits till it conducted nuclear explosions in 1998, which raised its status within India's national-chauvinist elite – and its budget. The major powers have "normalised" India's nuclear weapons through special exceptions in global nuclear commerce rules. France used these to drive a bargain for cash-strapped Areva. Its counterpart is the disaster-in-waiting called Jaitapur.
http://www.guardian.co.uk/commentisfree/2011/feb/08/india-jaitapur-nuclear-disaster-biodiversityJaitapur: Deficit of public trust
A Gopalakrishnan | Wednesday, February 9, 2011
The government has approved the construction of a 9900 MW (megawatt) nuclear park at Jaitapur in Ratnagiri district. The Nuclear Power Corporation of India Limited (NPCIL), a public sector undertaking of the Department of Atomic Energy (DAE), will own this mega power project. The project will have six European pressurised reactors (EPR), each of 1650 MW capacity; their fuel and critical equipment will be supplied by French state-owned company Areva.DAE does not today have any concrete basis or data to evaluate the EPR performance on their own. And yet, the ministry of environment and forest (MoEF) has hurriedly approved the environmental impact assessment (EIA) for the Jaitapur project, citing "weighty strategic and economic reasons in favour of the grant of environmental clearance now".
In clearing the EIA, the minister for environment has left all the crucial nuclear safety-related issues to be answered by the Atomic Energy Regulatory Board (AERB), the NPCIL and Areva. AERB and NPCIL are secretive and evasive on such issues, and Areva works under NPCIL directions. Safety issues are at the core of the public disquiet, and the MoEF-cleared EIA does not even cursorily address these vital aspects.
Article continues below the advertisement...Of late, a set of senior politicians and nuclear scientists have been carrying out a high-pressure blitzkrieg in favour of the Jaitapur project. The persons involved are the Maharashtra chief minister, the former and current chairmen of the Atomic Energy Commission (AEC), the chairman and managing director of NPCIL, and agents of corporate houses and their federations, all of whom stand to benefit in one way or other.
Let us not forget that these are the very same people who colluded with the prime minister's office (PMO) over the last six years to eventually trump up a false case to justify the import of foreign reactors. The public have hardly any trust in this unethical crowd, since their past actions indicate they are probably influenced by the corporate nuclear lobby and the directions from the PMO.
It is time now that this group starts answering the hard questions that trouble most informed people, instead of evading them. For example, they must openly defend the premises on which it is argued that the import of 40,000 MW of foreign light-water reactors in the near-term is essential to ensure energy security in the year 2050. They must explain why they chose to import the EPRs, which have never been built anywhere, instead of selecting a French LWR design on which established operational experience & confidence exist. Does this choice make any economic sense when all indications are that the EPRs will cost Rs20 crores/MW in terms of 2010-rupees, whereas an indigenous pressurized heavy-water reactor (PHWR) plant will cost no more than Rs8 crores/ MW?
Moreover, does selecting the EPR make any technological sense in view of the world experience with unidentified failure modes and design errors prevalent in brand new untested reactors, which might then lead to devastating nuclear accidents, especially in the initial learning phase? Or, are the PM and his DAE experts knowingly leasing out the Jaitapur area for Areva and the French government to experiment with this new reactor and fix its problems far away from their own nationals, while the people of Ratnagiri and the surrounding areas are made sitting ducks for this hazardous adventure?
How much understanding, based on relevant data, do Areva and NPCIL together have on the radiological and physical behavior of high-burnup spent-fuel from these EPRs and the consequent serious safety issues related to its long-term storage, cooling, transport and reprocessing?
There are many more such serious questions that still remain unanswered. The opposition to the Jaitapur project will not abate as long as the government avoids a full and transparent debate of each and every disturbing issue, which remains unanswered.
Dr Gopalakrishnan is a former chairman of the Atomic Energy Regulatory Board of the Govt of India
http://www.dnaindia.com/mumbai/column_jaitapur-deficit-of-public-trust_1505219
Jaitapur Nuclear Power Project
From Wikipedia, the free encyclopedia
Jaitapur Nuclear Power Project | |
*Nuclear power plant symbol | |
*Location of Jaitapur Nuclear Power Project | |
Country | India |
Coordinates | *16°59′0″N 73°35′6″ECoordinates: 16°59′0″N 73°35′6″E |
Status | Received Conditional environmental clearance |
Construction cost | *100,000 crore (US$21.7 billion) |
Owner(s) | Nuclear Power Corporation of India |
Power generation information | |
Maximum capacity | 9900 MW |
As of 26 December 2010 |
Jaitapur Nuclear Power Project (Marathi: जैतापूर अणुऊर्जा प्रकल्प) is a new proposed
9900 MW power project of Nuclear Power Corporation of India (NPCIL) at Madban village ofRatnagiri district in Maharashtra India.[1] It will be the largest nuclear power generating station in the world by net electrical power rating once completed.[2][3]
On December 6, 2010 agreement was signed for the construction of first set of two third-generation reactors Evolutionary Pressurized Reactors and the supply of nuclear fuel for 25 years in the presence of French President Nicolas Sarkozy and Indian Prime MinisterManmohan Singh.[4]
French nuclear engineering firm Areva S.A. and Indian state-owned nuclear operatorNuclear Power Corporation of India signed this multi billion valued agreement of about $9.3 billion. This is a general framework agreement along with agreement on 'Protection of Confidentiality of Technical Data and Information Relating to Nuclear Power Corporation in the Peaceful Uses of Nuclear Energy' was also signed.[5][6][7][8][9] The general framework agreement is a list of the scope of work, terms and conditions of plant life, guarantees and warrantees, guaranteed plant load factor. This agreement is quite important since life of the reactors is anticipated at 60 years. This general framework agreement will also include financial aspect of the project including the terms and conditions of funding, debt funding. Etc.. [10]
The cost of electricity from this power plant will be below 4 Kilowatt hour.[8]
It is one of several nuclear power projects being undertaken in a thin strip of coast ofRaigad, Ratnagiri and Sindhudurg districts. The total power generating capacity proposed on a narrow strip of coastal land 50 kilometres (31 mi) to 90 kilometres (56 mi) km wide and 200 kilometres (120 mi) long is around 33,000 MW.[1][11] The prospect of nuclear power generation in India received a boost after the Indo US Civilian Nuclear Agreementbecame operational in October 2008. India has also signed similar agreements with France and Russia.[12][13][14]
Contents[hide] |
[edit]Geography
Proposed Jaitapur Nuclear Power Project is located at 16.59°N 73.35°E. It has an average elevation of 90 feet (27 m). This project will spread over 968 hectares of land. Jaitapur is on the Arabian Sea coast in Ratnagiri district in the southwestern part of Maharashtra, India. The district is a part of Konkan in Western Ghats. In 2006, India applied to the UNESCO MAB for the Western Ghats to be listed as a protectedWorld Heritage Site.[15][16] The Sahyadri Mountain range forms the eastern boundary of the Konkan, and the Arabian Sea marks the western boundary. Jaitapur was one of the important ports in ancient and early medieval times.[17]
[edit]Reactors
It is proposed to construct 6 European Pressurized Reactor designed and developed by Areva of France, each of 1650 megawatts, thus totaling 9900 megawatts. These are the third generation pressurized water reactors (PWR).
Estimated cost of this project is around crore (US$21.7 billion). This type of reactor is not operational anywhere in the world.[18][19]United States Nuclear Regulatory Commission have expressed concerns about safety of the computer system in this reactor, but Finlandhas ordered one such reactor.[18] China has signed the agreement with Areva for three such reactors.[18] French nuclear regulatory authorities have denied clearance for this reactors despite Areva being a public sector company in France.[20]
[edit]Funding
A consortium of French financial institutions will finance this project as a loan. Both French and Indian government will give sovereign guarantee for this loan. The extent of guarantee will depend on what portion of the cost the French credit will cover. The Organization for Economic Co-operation and Development (OECD) will govern the interest rates and other terms of agreement. Interest rates and other terms are under discussion.[21]
[edit]Controversy and hurdle
[edit]Hurdle
According to Areva lack of clarity on The Civil Liability for Nuclear Damage Bill 2010 passed in Indian Parliament in August 2010 is a hurdle in finalizing deal.[22] This Civil Liability for Nuclear Damage Bill 2010 has a clause deals with the legal binding of the culpable groups in case of a nuclear accident. It allows only the operator (NPCIL) to sue the manufacturers and suppliers. Victims will not be able to sue anyone. In reality, no one will be considered legally liable because the recourse taken by the operator will yield only 1,500 crore (US$ 340.5 million). United states of America has a law on liability-related issues for all non-military nuclear facilities constructed in the United States before 2026 named Price–Anderson Nuclear Industries Indemnity Act. This American Act establishes a no fault insurance-type system in which the first $10 billion is industry-funded as described in the Act (any claims above the $10 billion would be covered by the federal government).[23][24]
[edit]Controversy
Debate on nuclear power project at Jaitapur is ongoing on various levels. Environmental effects of nuclear power and geological issues have been raised by anti nuclear activists of India against this power project. Even though The Government of Maharashtra state completed land acquisition in January 2010, only 33 out of the 2,335 villagers have accepted compensation cheques as of November 2010.[25]
[edit]Opponents
- Earthquake prone site
Since Jaitapur being seismically sensitive area, the danger of an accident has been foremost on the minds of people. According to theEarthquake hazard zoning of India, Jaitapur comes under Zone III. This zone is called the moderate Risk Zone and covers areas liable toMSK VIII.[26][27] Post Chernobyl disaster and Thee mile island accident people world over the world, Environmentalists and citizens of the area are questioning about safety as in 2007 largest nuclear generating station in the world Kashiwazaki-Kariwa Nuclear Power Plant inJapan at the Onagawa Nuclear Power Plant was closed for five months following an earthquake.[28][29]
- Radiation effects
Effects of nuclear radiation seen in Rawatbhata, India [30] has raised further questions on effects of radiation on health of people staying near nuclear power plants. The rise in deformities seen in Rawatbhata is alarming.
It is not clear where the nuclear waste emanating from the site will be dumped. The plant is estimated to generate 300 tonnes of waste each year. EPR waste will have about four times as much radioactive Bromine, Iodine, Caesium, etc, compared to ordinary Pressurized water reactor.[18]
- Future of fisheries
Since the plant will use the sea water for steam generation and then release hot water in the arabian sea, fishermen in villages around are predicting destruction of fisheries in the nearby sea. Media articles also highlight the possible human and fisheries cost of this project[31]
- Jaitapur Nuclear Power Project Environment Clearance
The environment minister has changed his stand on the
Jaitapur power plant like a chameleon,"
"
"
Uddhav Thackeray, executive president Shiv Sena
Hindustan Times December 20, 2010
The clearance for the Jaitapur Nuclear Power Project, to be jointly developed by state-owned Nuclear Power Corporation of India (NPC) and French giant Areva, came in 80 days from the day NPC submitted the environment impact assessment report even all above mentioned unanswered queries.[32]
- Tata Institute of Social Sciences Report
Social impact assessment review of the project is conducted by Jamsetji Tata centre for disaster management of the Tata Institute of Social Sciences (TISS). According to this report, Government of India is not full transparent with its own citizens. The government is hiding facts about huge negative impact on the social and environmental development of the Konkan region in general and government also manipulating notification of the area from high severity earthquake zone to moderate seismic severity zone.[33][34]
[edit]Proponents
I know the environmentalists will not be very happy with my
decision, but it is foolish romance to think that India can attain high
growth rate and sustain the energy needs of a 1.2 billion population
with the help of solar, wind, biogas and such other forms of energy.
It is paradoxical that environmentalists are against nuclear energy,
"
"
Jairam Ramesh, Environment Minister. The Hindu November 28, 2010
Proponents are advocating the Jaitapur Project as safe, environmentally benign and economically viable source of electrical energy to meet the increasing electricity needs of India.[35] They believe that nuclear power is a sustainable energy source that reduces carbon emissions and increasesenergy security by decreasing India's dependence on foreign oil. The promoter of Jaitapur project is Nuclear Power Corporation of India. It is a public Sector Enterprise Under the administrative control of the Department of Atomic Energy (India).
As of 2010 India is on the sixth in rank of an elite club of nations, after USA, France, Japan, Russian Federation and Republic of Korea, to have twenty or more nuclear power reactors in operation.[36] The company is currently operating 20 nuclear power plants at six locations in India and is implementing construction of 7 reactors at four locations.[37] In 2009/10 company has generated 18831 million units of electricity.[38]
According to former chairman of Atomic Energy Commission Anil Kakodkar, Jaitapur site is the best as it fulfilled the technical and scientific norms needed for a nuclear power plant.[39][40]
Pressure vessel of the Evolutionary Power Reactor
All 20 nuclear power projects in the India have been functioning very well and The waste generated at the this nuclear power plant, will be recycled. Only five per cent of it would be encapsulated and stored at technologically advanced places. It will not be buried anywhere. The waste will be stored for the next 30 to 40 years, till scientists develop some technology to treat it.[41]
The Environmental impact assessment and other associated studies of the Jaitapur project have been carried out in detail over the last few years by National Environmental Engineering Research Institute (NEERI), Nagpur in collaboration with several other reputed organizations specializing in specific environment studies.[42]
These studies include,
Pre-operational Baseline Radiological Survey of the Area around JNPP Site.
Radiological Dose Apportionment.
- Central Water and Power Research Station Pune
Thermal Dispersion Studies for Condenser Cooling Water (CCW) Discharges
Safe Grade Elevation Studies.
Baseline Biodiversity Study of the area around JNPP Site.
- Konkan Krishi Vidyapith College of Fisheries, Ratnagiri
Marine Ecological Studies.
Costal Regulation Zone (CRZ) Demarcation Study.
- HTL.
- LTL.
Corporate social responsibility
Nuclear Power Corporation of India has adopted a corporate social responsibility policy, by which 1.5 to 2 per cent of the net profit from Jaitapur plant would be spent in that area only. Development projects will be decided by local people and NPC will provide the funds to ensure development of these areas. [43]
[edit]Protests
Opposition to the power plant begun in January 2006. A court case was filed by Janahit Seva Samitee, Madban in the Mumbai High Court. The high court had given a stay on the process for the project, which was later lifted. A huge meeting of people from nearby villages was held on 23 November 2009. This meeting was attended by anti nuclear movement of India's activists coming from Pune, Bangalore, Chennai,Allahabad, Mumbai and Tarapur.
Many protests were carried out by local people against the proposed nuclear power plant. On 29 December 2009, 12 January 2010 and 22 January 2010, when the government authorities visited Madban for distribution of cheques in lieu of compulsory land acquisition, the villagers refused to accept the cheques. Government officials were shown black flags, denied any co-operation in carrying out their activities. 72 people were arrested on 22 January 2010 when people protested against the compulsory land acquisition.[44][45][46]
On December 4, 2010 protest become violent when over 1500 people were detained from among thousands of protesters, who included environmentalists and local villagers. Members and leaders of the Konkan Bachao Samiti (KBS) and the Janahit Seva Samiti, (organizations that are spearheading opposition to the project), were also detained. In Mumbai, members of various trade unions and social organizations came together to protest against the project. The protesters have raised serious doubts about the neutrality of the Environment Impact Assessment Report, prepared by National Environmental Engineering Research Institute (NEERI) which forms the basis of environmental clearance for the project, since Parallel studies by the Bombay Natural History Society have shown that the project will cause substantial environmental damage.[47]
[edit]Public Hearing
A public hearing on the Environmental impact assessment (EIA) Report, prepared by NEERI was conducted by Maharashtra Pollution Control Board, on behalf of Ministry of Environment and Forests on 16 April 2010, at the plant site. The public hearing became controversial as the EIA report was not delivered for study to 3 of the 4 Gram panchayat (local village bodies) a month in advance.[48]
[edit]Events
Date | Event |
November 28, 2010 | India, France N-regulatory bodies meet on EPR safety issues[49] |
November 28, 2010 | Conditional environmental clearance |
December 06, 2010 | Agreement signed with Areva for the construction of first set of two reactors |
[edit]See also
- Nuclear renaissance
- Generation IV reactor
- Economics of new nuclear power plants
* Wikinews has related news:Two nuclear leaks in two weeks trigger security and safety reviews in France
[edit]References
Notes
- ^ a b Deshpande, VIinaya (November 28, 2010). "It's paradoxical that environmentalists are against nuclear energy: Jairam Ramesh". Mumbai- India: The Hindu. Retrieved 29 November 2010.
- ^ "Jaitapur nuclear project: villagers turn down compensation". Mumbai- India: The Hindu. July 25, 2010. Retrieved 29 November 2010.
- ^ "Nuclear Power in India". World Nuclear Association. Updated November 2010. Retrieved 29 November 2010.
- ^ AMIEL, GERALDINE (DECEMBER 6, 2010). "Areva and NPCIL Sign Nuclear Agreement" (in English). PARIS: The Wall street Journal. Retrieved 6 December 2010.
- ^ "India, France sign nuclear power deal- Hindu" (in English). New Delhi: The Hindu. December 6, 2010. Retrieved 6 December 2010.
- ^ "India-France sign agreement on civil nuclear cooperation" (in English). New Delhi: NDTV. December 06, 2010. Retrieved 6 December 2010.
- ^ "Sarkozy eyes big contracts" (in English). The Hindu. December 02, 2010. Retrieved 2 December 2010.
- ^ a b Naravane, Vaiju (November 25, 2010). ""We are partners over the long haul" Interview with Anne Lauvergeon, CEO of Areva." (in English). Paris: The Hindu. Retrieved 30 November 2010.
- ^ Deshpande, VIinaya (November 29, 2010). "Environmental clearance for Jaitapur nuclear project" (in English). The Hindu. Retrieved 29 November 2010.
- ^ Jog, Sanjay (December 6, 2010). "NPC, Areva to sign two key pacts on Jaitapur" (in English). Mumbai: BusinessStandard. Retrieved 6 December 2010.
- ^ "There are other power projects coming up on a thin strip of coast of Raigad, Ratnagiri and Sindhudurg with power generation adding up to 33,000 MW." (in English). Sify News. November 29, 2010. Retrieved 30 November 2010.
- ^ "DNA Report on France India Nuclear Agreement". Dnaindia.com. Retrieved 2010-11-28.
- ^ "French Parliament ratifies indo-french nuclear deal". Dnaindia.com. 2009-11-27. Retrieved 2010-11-28.
- ^ "Indo-Russian Nuclear Deal on BBC". BBC News. 2008-12-05. Retrieved 2010-11-28.
- ^ "World Heritage sites, Tentative lists, Western Ghats sub cluster". UNESCO, MAB. 2007. Retrieved 2007-03-30.
- ^ "जैतापूर प्रकल्पाच्या सर्व बाजू तपासणार - रत्नागिरी आणि सिंधुदुर्ग हे जिल्हे जैवविविधतेच्या समृद्धीमुळे पर्यावरण मंत्रालयातर्फे यापूर्वीच संरक्षित म्हणून जाहीर.." (in Marathi). New Delhi: Sakal newspaper. June 10, 2010. Retrieved 2 December 2010.
- ^ Hebalkar, Sharad (2001) (in English). Ancient Indian ports: with special reference to Maharashtra (illustrated ed.). Munshiram Manoharlal Publishers. p. 175. ISBN 8121508584, 9788121508582. Retrieved December 3, 2010.
- ^ a b c d "Reject French reactors for Jaitapur- A Gopalakrishnan (former chairman of the Atomic Energy Regulatory Board of the Government)" (in English). Indian Express. December 03,2010. Retrieved 3 December 2010.
- ^ "European pressurised reactors costlier, less efficient: expert"(in English). Sify.com, India News Portal. December 03, 2010. Retrieved 4 December 2010.
- ^ MUKHERJEE, ANURADHA (November 29, 2010). "French Jaitapur nuclear reactor called dangerous". New Delhi: The Sunday Guardian. Retrieved 29 November 2010.
- ^ Mukul, Jyoti (December 23, 2010). "Sovereign guarantee for Jaitapur Nuclear project" (in English). New Delhi: Business Standard. Retrieved 26 December 2010.
- ^ Roy, Shubhajit (Dec 07, 2010). "Jaitapur n-reactors flagged off but liability concerns remain" (in English). New Delhi: Indian Express. Retrieved 18 December 2010.
- ^ "Civil liability for nuclear damage". Eoearth.org. Retrieved 2010-12-21.
- ^ "US nuke team pushes for firm commitment on project sites"(in English). The Hindu BusinessLine. Jan 14, 2009. Retrieved 26 December 2010.
- ^ Rebello, Snehal (November 29, 2010). "Nod for Jaitapur nuclear project in time for French President's visit" (in English). Mumbai: Hindustan Times. Retrieved 30 November 2010.
- ^ "Vulnerability Zones in India" (in English). ReliefWeb. Retrieved 29 November 2010.
- ^ "Seismic Zone Map of India". Mapsofindia.com. Retrieved 2010-11-28.
- ^ "Nuclear plant hit by earthquake closed indefinitely in Japan"(in English). KASHIWAZAKI, Japan: The New York Times. July 18, 2007. Retrieved 29 November 2010.
- ^ "Nuclear Power, Caught in an Earthquake, Has Japan's earthquake sent us a wakeup call?" (in English). ABC news. July 17, 2007. Retrieved 29 November 2010.
- ^ "Rawatbhata Study by Dr. Surendra Gadekar". Groups.yahoo.com. Retrieved 2010-11-28.
- ^ "Tehelaka Report". Tehelka.com. Retrieved 2010-11-28.
- ^ Singh, Dinesh (2010-11-28). "India's Green Man Jairam Ramesh Surrenders before Nuclear Energy Giant Areva". Abclive.in. Retrieved 2010-12-21.
- ^ Siddhaye, Ninad (December 26, 2010). "Jaitapur nuke plant will be a social disaster: TISS report" (in English). Mumbai: Daily News and Analysis. Retrieved 27 December 2010.
- ^ "Anti-Jaitapur project campaigners up ante" (in English).Special Correspondent (Mumbai: Sakaal Times). December 03, 2010. Retrieved 27 December 2010.
- ^ "MISSION AND OBJECTIVES of NPCIL" (in English). NPCIL. Retrieved 1 December 2010.
- ^ Nagaich, Nalinish (November 27, 2010). "India at Sixth Rank in the World with its 20th Nuclear Power Reactor Commencing Operation" (in English). Mumbai- India: Nuclear Power Corporation of India Limited. Retrieved 1 December 2010.
- ^ "about Nuclear Power Corporation of India Limited" (in English). Nuclear Power Corporation of India Limited. Retrieved 1 December 2010.
- ^ "Nuclear Power Generation (2006-07 to 2010-11) by NPCL" (in English). Nuclear Power Corporation of India Limited. Retrieved 1 December 2010.
- ^ "Jaitapur nuclear power plant no threat to environment: Kakodkar" (in English). Pune: Indian Express. December 01, 2010. Retrieved 1 December 2010.
- ^ (in English) Indian journal of marine sciences. Volume-23, Page- 34. Council of Scientific & Industrial Research. 1994. Retrieved December 3, 2010.
- ^ "Jaitapur project will not harm environment, says Kakodkar" (in English). Pune: Times of India.. December 01, 2010. Retrieved 1 December 2010.
- ^ "Nuclear Power Corporation of India Limited - PRESS RELEASE" (in English). Mumbai- India: Nuclear Power Corporation of India Limited. November 29, 2010. Retrieved 30 November 2010.
- ^ Jog, Sanjay (November 29, 2010). "Nuclear Power Corporation is committed to environment protection' Q&A: S K Jain, CMD" (in English). Mumabi: Business Standard. Retrieved 6 December 2010.
- ^ Balakrishnan, Bhaskar (February 10, 2009). "Unleashing India's nuclear potential" (in English). Business Daily from THE HINDU. Retrieved 2 December 2010.
- ^ Menon, Meena (January 18, 2010). "Nuclear power plant opposed" (in English). MADBAN (Ratnagiri district): The Hindu. Retrieved 2 December 2010.
- ^ "जैतापूर प्रकल्प : 'कोकण बचाव समिती'चे थेट वाद-विवादाचे आव्हान - बैठक ३ डिसेंबरला" (in Marathi). Mumbai: लोकसत्ता Loksatta. November 30, 2010. Retrieved 2 December 2010.
- ^ Deshpande, Vinaya (December 5, 2010). "Protest against Jaitapur nuclear plant" (in English). The Hindu. Retrieved 5 December 2010.
- ^ July 5, 2010 (2010-07-05). "Jaitapur EIA Public Hearing". Lokayatpune.wordpress.com. Retrieved 2010-11-28.
- ^ "India, France N-regulatory bodies meet on EPR safety issues"(in English). Mumbai: MSN News. November 24, 2010. Retrieved 5 December 2010.
Further reading
See also: List of books about nuclear issues and List of films about nuclear issues
- Struwe, D. Jacobs, H. Imke, U. Consequence evaluation of in-vessel fuel coolant interactions in the European Pressurized Water Reactor ISSN 0947-8620
- Manfred, Fischer. The severe accident mitigation concept and the design measures for core melt retention of the European Pressurized Reactor (EPR) Original Research Article, Nuclear Engineering and Design, Volume 230, Issues 1-3, May 2004, Pages 169-180
- Lvins, Amory B. and Price, John H. (1975). Non-Nuclear Futures: The Case for an Ethical Energy Strategy (Cambridge, Mass.: Ballinger Publishing Company, 1975. xxxii + 223pp. ISBN 0-88410-602-0, ISBN 0-88410-603-9).
- with Mycle Schneider, Antony Froggatt, and Doug Koplow. The World Nuclear Industry Status Report 2009 Commissioned by German Federal Ministry of Environment, Nature Conservation and Reactor Safety, August 2009.
- Voices from Chernobyl: The Oral History of a Nuclear Disaster(Dalkey Archive Press 2005; ISBN 1-56478-401-0)
- Cravens, Gwyneth (2007). Power to Save the World: the Truth about Nuclear Energy. New York: Knopf. pp. 464. ISBN 0-307-26656-7.
- Herbst, Alan M. and George W. Hopley (2007). Nuclear Energy Now: Why the Time has come for the World's Most Misunderstood Energy Source, Wiley.
- Elliott, David (2007). Nuclear or Not? Does Nuclear Power Have a Place in a Sustainable Energy Future?, Palgrave.
[edit]External links
- Nuclear Power Corporation of India (official site)
* India portal
* Nuclear technology portal
* Energy portal
[show]v · d · eNuclear power by country
[show]v · d · eNuclear power in India
[show]v · d · eElectricity generation
Categories: Nuclear power stations in India | Government-owned companies in India | Economy of Maharashtra | Nuclear energy in India |Proposed nuclear power stations
Villagers protest against Jaitapur nuclear power plant
Ketki Angre, Prachi Jawadekar Wagh, Updated: December 28, 2010 21:35 IST
Ratnagiri: As farmers' protests boil over in Ratnagiri, threatening to delay the 9,900 megawatt Jaitapur nuclear power plant - said to be the world's largest - a concerned Maharashtra government dispatched a Congress team to Ground Zero.
"A Congress committee is going to Jaitapur tomorrow. The committee will talk to locals and fishermen there. We will listen to their views and problems," Maharashtra Congress chief Manikrao Thakre said.
It has been a month since the Union Environment Ministry gave a conditional go-ahead to the Jaitapur plant. Yet, on the ground, the protests refuse to die down.
"People who have faced the effects of a nuclear power project in their vicinity told us that this is a devastating project. They said that our next generation will have nothing to live and survive on. We will lose our paddy fields, our plantations and orchards and we will die of hunger," said Umakant Kambli, a resident of Madban village, Ratnagiri.
"We will die but won't let this project come up," said Manda Laxman Wadekar, former Sarpanch.
There is a sense of mistrust against the government. People here say they were not taken into confidence regarding the project, their lands were forcefully taken away, and their democratic protests were illegally thwarted.
Experts have already said that building, safeguarding and providing imported fuel to the reactor will be so costly that power from Jaitapur will be unaffordable.
"In the case of coal-based projects, each new megawatt generation costs Rs 5 crore per megawatt. In the case of Jaitapur it will be Rs 20 crore per megawatt," said Dr E A S Sarma, former Secretary, Union Ministry of Power.
Now villagers allege the project has neither planned storage and disposal of its nuclear waste, nor a draft on how to ecologically protect Ratnagiri - a region of rich agriculture, horticulture, fisheries and biodiversity.
Without these plans in place, they say, letting the project come up will be suicidal.
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Story first published:
December 28, 2010 21:28 IST
Why the Jaitapur nuclear plant must be opposed
December 29, 2010 16:37 IST
Tags: National Environmental Engineering Research Institute, AREVA, EIA, Bombay Natural History Society, Atomic Energy Regulatory Board
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Citizens are demanding answers to questions regarding approval, rehabilitation and land acquisition, costs, radioactive byproducts, reprocessing of spent fuel and disposal of radioactive wastes and civil nuclear liability limits of the Jaitapur nuclear plant that remains unaddressed. It must be answered by the Indian government, says activist Gopal Krishna.
Madban, a small village in Ratnagiri, Maharashtra [ Images ] is opposed to the nuclear plant in Jaitapur proposed by the Department of Atomic Energy, Government of India [Images ]. The project got environmental clearance on November 28 hurriedly to please French President Nicolas Sarkozy, who visted India from December 4-7. The nuclear reactors would be designed and developed by AREVA, a French company.
Prior to this on October 29, more than 3,000 villagers courted arrest after an agitation. The villagers have refused compensation. Former high court judge B G Kolse-Patil, who was served orders preventing him from entering Ratnagiri district, flouted the ban and attended the villagers rally. Former Indian Navy chief Admiral L Ramdas (retired) and former Supreme Court Judge P B Samant too supported the villagers but were stopped by the police from joining the agitation.
The proposed nuclear power park at Madban is situated near the port of Jaitapur in the southern part of Ratnagiri district. It would be the largest single location nuclear power project in the world. It is based on the import of six nuclear power plants from AREVA. In the first phase, two plants are to be built between 2012 and 2017.
It has come to light that in the matter of the Jaitapur Nuclear Power Project a rigorous and scientific environment impact assessment and cost benefit analysis has not been performed.
Union Minister of Environment and Forests Jairam Ramesh [ Images ], in the presence of the chief minister and deputy chief minister of Maharashtra officially announced 'conditional' environmental clearance to the JNPP. The citizens of Maharashtra and India are demanding answers to questions regarding approval, rehabilitation and land acquisition, costs, radioactive byproducts, reprocessing of spent fuel and disposal of radioactive wastes and civil nuclear liability limits that remains unaddressed. It must be answered by the Indian government. It is widely felt that it is a Vedanta and Posco kind of clearance given in haste to be repented in leisure.
It appears that the preparations for Sarkozy occupied the Union Cabinet so much that it failed to consult the secretaries of ministries/departments of the government of India on the ramifications in terms of liability from the proposed nuclear plant.
Several organisations and a large number of individuals are campaigning against the plant. The Konkan Bachao Samiti and the Janhit Seva Samiti have been spearheading a campaign against this nuclear power project. There is reliable information that the European regulatory authorities from three countries, Finland, France [ Images ] and UK have jointly written to AREVA, raising certain serious objections to the current design of control and instrumentation for vital safety aspects of Evolutionary Pressurized Reactors plant. It has also been learnt that the US regulator has written to AREVA expressing similar concerns.
Local residents are opposed to the JNPP and have refused to accept any compensation, nor have they demanded a raise in compensation. The project will attract Rs 25,000 crore to Rs 35,000 crore investment in the first two phases. The government is offering Rs 350 crore as compensation to the villagers. It is claimed that there are 2,033 families who would be directly affected by the project on 968 hectares of land. The nuclear project promises power generation of 9,900 MW in phases.
In a backdrop that presented a fait accompli, the biodiversity report prepared by the Bombay Natural History Society formed the basis for the 35 environmental conditions set by the environment ministry while giving the green signal for the nuclear plant. The report recorded the presence of plant and animal life on land and marine both at and around the plant site. The BNHS has also mapped 407 hectares of mangrove vegetation around a 10 km radius of the nuclear plant as well as in some of the affected villages.
The BNHS report contradicted the official 1,200 page environment impact assessment report prepared by the National Environmental Engineering Research Institute and made public in April, 2010.
The NEERI report had described the land surrounding the nuclear plant as "rocky and barren land with no habitation and vegetation" and hence ruled out any adverse ecological impact in the area. The same area was surveyed during the monsoon by BNHS, which found 134 species of plants on the plateau.
In July, 2010 the BNHS conducted a rapid impact assessment of the biodiversity of the region and found the Madban plateau to be rich in plant and animal diversity with very good marine diversity in adjacent sites of Ambolgad and Kasheli.
The BNHS found 1,000 plant species, NEERI couldn't find even 500 species. Indeed if the project proponents are assigned to conduct EIA, the report cannot be objective. Therefore, once again the NEERI report is flawed. The Nuclear Power Corporation of India Limited, the project proponent, is an undertaking of the Department of Atomic Energy (DAE had commissioned NEERI to prepare the EIA report for the Jaitapur plant in 2005).
Earlier, in a letter to the President of India dated September 1, ToxicsWatch Alliance pointed out that "the cost of a single nuclear reactor can be as high as Rs 30,000 crore as in the case of the reactor planned at Jaitapur by AREVA, a French public multinational industrial conglomerate headquartered in Tour Areva near Paris. Consequently, the cost of a reactor can be 20 times the maximum amount of liability. It means that it might be cheaper for the operator to take the risk of paying the maximum liability than to spend, say, 10 per cent extra in adding safety features to the plant."
It has been found that NEERI's EIA report is unscientific. This EIA report was made available only a month prior to the public hearing on May 16. It has been alleged on factual grounds that the EIA report reads as if it was authored by the public relations department of NPCIL or Areva.
It may be noted, "The accident at Chernobyl released into the atmosphere an amount of radioactivity equivalent to 400 bombs of the Hiroshima variety. The nuclear project at Jaitapur is about 10 times the size of the Chernobyl Power Plant. The huge radioactive accumulations at the plant site are the principal causes of concern which must be addressed."
NEERI did not have the competence to assess the project. It entails issues of radioactive radiation. NEERI contends that the project meets Atomic Energy Regulatory Board norms and standards without conducting any independent assessment, relying completely on the AERB. But AERB reports are not part of the EIA.
Unmindful of its admitted incompetence to assess radioactive risk, NEERI certifies the safety of the plant saying, "Through individual event sequence analysis for different initiating events, it is estimated that the plant is provided adequate safety features and measures to mitigate or minimise any unsafe consequences".
The same EIA report reveals the following, "All the above scenarios explained, namely Design Basis Accidents and Beyond Design Basis Accidents are thoroughly studied and detailed reports are generated as Preliminary Safety Analysis Reports and these reports will be submitted to Atomic Energy Regulatory Board for review and approval for construction of nuclear power project at Jaitapur." Clearly implying that the safety approval by the AERB is yet to be obtained and despite this it certified the adequacy of the safety of the plant against "any unsafe consequences".
The threat of a terrorist attack on nuclear plants in India is also considered credible is clear from the specific exclusion in clause 5 (ii) in the Civil Liability for Nuclear Damage Bill (2010) which has been passed by the Indian Parliament and awaits the President's assent. It reads: "An operator shall not be liable for any nuclear damage where such damage is caused by a nuclear incident directly due to -- an act of armed conflict, hostility, civil war, insurrection or terrorism".
After the 9/11 terrorist attack in the US, the possibility of terrorist attacks on nuclear power plants is considered quite credible and substantial by US authorities. The DAE has ignored the complete text of a 2009 report presented to the US Congress: on "Nuclear Power Plant Security and Vulnerabilities". Consequently, amendments were made in US law to require nuclear plant design to address this risk but the Indian legislation on nuclear liability does the contrary.
In his testimony to the parliamentary committee, Union Defence Secretary Pradeep Kumar categorically had stated, "under different layers of protection, nuclear assets including nuclear installations are being protected through defence." However, he admitted that "absolute and foolproof protection cannot be guaranteed for any nuclear or other assets in the country during peace or war."
Exceptions for acts of terrorism can easily be used by the supplier and the operator to wash their hands off any nuclear disaster. Testimony after testimony before the parliamentary committee had asked for deletion of the word terrorism from the nuclear liability bill but the same is not reflected in the bill which was passed by Parliament.
Misplaced expression of satisfaction by NEERI with NPCIL's claim of safe storage for 100 years is shocking. This constitutes less than one per cent of the lethality lifetime of the spent fuel. There is no explanation as what will happen to the radioactive waste after 100 years. It is a known fact that India does not have a geological repository for nuclear waste and there are no sites in India suitable for building one.
The EIA report is flawed because of the absence of a specific plan for decommissioning as well. No new nuclear plant can be built in Europe or the US without such a plan. The EIA report is untenable.
The cost of electricity generated from JNPP would be in excess of Rs 9 per unit. This does not include the costs of managing radioactive waste and decommissioning. The current cost of electricity is about Rs 4 per unit. It has been noted in the Rajya Sabha that as far as the cost difference between hydro, thermal and all the available options vis-à-vis nuclear electricity is concerned, the cost difference is 1:3.
If the overall objective of wanting to generate 40,000 MW of nuclear power in the next two decades is considered, the cost difference between conventional and nuclear electricity would be more than Rs 300,000 crore. This amount can build 20,000 hundred-bedded modern hospitals all over the country and 2.5 lakhs of Navodaya Vidyalayas with boarding facilities for 100 students all over the country.
The total installed generating capacity in India as on June 30 was 162,367 MW, comprising 64 percent from fossil fuel, 23 percent from hydro, 3 percent from nuclear and balance 10 percent from renewable energy sources. Evidently, share of nuclear power is quite low. It is possible to generate similar power from alternate sources of energy.
In its last report in 2010, the Parliamentary Standing Committee on Science, Technology, Environment & Forests, had recommended that "the government should consult all such ministries/departments which are even remotely concerned with the provisions of a proposed legislation", the same has not been done. This recommendation has been ignored in the case of Jaitapur nuclear plant as well.
The standing committee referred to how secretaries of ministries of health & family welfare, agriculture, labour & employment, food & public distribution were ignored in the drafting of the Nuclear Liability Bill was a very serious lapse of the Union Cabinet.
It may be noted that secretary, Union ministry of health said, "Since the response system to deal with any kind of emergency of such type, the hospitals are not well-equipped, it is natural that mortality and morbidity due to multiple burn, blasts, radiation injuries and psycho-social impact could be on very high scale and medical tackling of such a large emergency could have enough repercussions in the nearby areas of radioactive fallout."
She also mentioned that in the entire bill, there is not a single clause which speaks about taking healthcare during radiological emergencies. It reflects only about payment of compensation due to health impacts of such radiation. She suggested while setting up nuclear plants, consideration may also be given to the fact that there should be a hospital having trained doctors near such establishments and arrangements should also be made for free treatment of people who are affected by serious nuclear fallout.
She confessed that "her ministry is nowhere to meet an eventuality that may arise out of nuclear and radiological emergencies." Similar testimonies from secretaries of other ministries provide a chilling and prophetic forewarning.
In compliance of the suggestion of chairperson of the parliamentary committee during my testimony on August 3 and pursuant to a written submission dated July 7, TWA had specifically drawn the attention of the committee with regard to the narrow definition of the word 'installation' and conflict of interest ridden existence of the AERB. In a letter to the committee dated August 12, TWA has questioned the merit of centralised power stations given 35-40 percent transmission and distribution loss from power grids.
The secretary, financial services, ministry of finance, submitted before the committee that "any increase in premium of insurance will lead to increase in the cost of production of electricity for nuclear power. It is argued that higher the liability limit higher will be the insurance premium and subsequently higher will be the cost of electricity production."
Keeping these concerns in mind, opposition against the nuclear plants are emerging in a huge way.
Will the sane voice of Madban village be able to compel the might of a determined state to bulldoze its nuclear project at any cost, to rethink? The issue what is supreme AREVA's interest or the interest of villagers. Once again the insincerity and dishonesty of paying lip-service to Mahatma Gandhi's [ Images ] village republic and autocratically refusing to accord a sovereign status to the village at the same time stands exposed.
Gopal Krishna is a member of Toxicswatch Alliance.
Tags: Jaitapur nuclear plant, Jaitapur plant
http://www.rediff.com/news/column/why-the-jaitapur-nuclear-plant-must-be-opposed/20101229.htm
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Nuclear power in India
From Wikipedia, the free encyclopediaNuclear power is the fourth-largest source of electricity in India after thermal, hydro and renewable sources of electricity.[1] As of 2010, India has 20 nuclear power plants in operation generating 4,560 MW while 4 other are under construction and are expected to generate an additional 2,720 MW.[2] India's nuclear power industry is undergoing rapid expansion with plans to increase nuclear power output to 64,000 MW by 2032.[3] The country is involved in the development of nuclear fusion reactors through its participation in the ITER project and is a global leader in the development of thorium-based fast breeder reactors.[4]
India's domestic uranium reserves are small and the country is dependent on uranium imports to fuel its nuclear power industry. Since early 1990s, Russia has been a major supplier of nuclear fuel to India.[5] Due to dwindling domestic uranium reserves,[6] electricity generation from nuclear power in India declined by 12.83% from 2006 to 2008.[7] Following a waiver from the Nuclear Suppliers Group in September 2008 which allowed it to commence international nuclear trade,[8] India has signed bilateral deals on civilian nuclear energy technology cooperation with several other countries, including France,[9] the United States,[10] the United Kingdom,[11] and Canada.[12] India has also uranium supply agreements with Russia,[13][14] Mongolia,[15] Kazakhstan,[16] Argentina[17] and Namibia.[18] An Indian private company won a uranium exploration contract in Niger.[19]
India now envisages to increase the contribution of nuclear power to overall electricity generation capacity from 4.2% to 9% within 25 years.[20] In 2010, India's installed nuclear power generation capacity will increase to 6,000 MW.[21] As of 2009, India stands 9th in the worldin terms of number of operational nuclear power reactors and is constructing 9 more, including two EPRs being constructed by France'sAreva.[22] Indigenous atomic reactors include TAPS-3, and -4, both of which are 540 MW reactors.[23] India's US$717 million fast breeder reactor project is expected to be operational by 2010.[24]
Contents
[hide][edit]Nuclear Power Growth in India
[edit]Growth
India, being a non-signatory of the Nuclear Non-Proliferation Treaty, has been subjected to a defacto nuclear embargo from members of the Nuclear Suppliers Group (NSG) cartel. This has prevented India from obtaining commercial nuclear fuel, nuclear power plant components and services from the international market, thereby forcing India to develop its own fuel, components and services for nuclear power generation. The NSG embargo has had both negative and positive consequences for India's Nuclear Industry. On one hand, the NSG regime has constrained India from freely importing nuclear fuel at the volume and cost levels it would like to support the country's goals of expanding its nuclear power generation capacity to at least 20,000 MW by 2020. Also, by precluding India from taking advantage of the economies of scale and safety innovations of the global nuclear industry, the NSG regime has driven up the capital and operating costs and damaged the achievable safety potential of Indian nuclear power plants. On the other hand, the NSG embargo has forced the Indian government and bureaucracy to support and actively fund the development of Indian nuclear technologies and industrial capacities in all key areas required to create and maintain a domestic nuclear industry. This has resulted in the creation of a large pool of nuclear scientists, engineers and technicians that have developed new and unique innovations in the areas of Fast Breeder Reactors, Thermal Breeder Reactors, the Thorium fuel cycle, nuclear fuel reprocessing and Tritium extraction & production. Ironically, had the NSG sanctions not been in place, it would have been far more cost effective for India to import foreign nuclear power plants and nuclear fuels than to fund the development of Indian nuclear power generation technology, building of India's own nuclear reactors, and the development of domestic uranium mining, milling and refining capacity.
The Indian nuclear power industry is expected to undergo a significant expansion in the coming years thanks in part to the passing of TheIndo-US nuclear deal. This agreement will allow India to carry out trade of nuclear fuel and technologies with other countries and significantly enhance its power generation capacity.[25] when the agreement goes through, India is expected to generate an additional 25,000 MW of nuclear power by 2020, bringing total estimated nuclear power generation to 45,000 MW.[26]
India has already been using imported enriched uranium and are currently under International Atomic Energy Agency (IAEA) safeguards, but it has developed various aspects of the nuclear fuel cycle to support its reactors. Development of select technologies has been strongly affected by limited imports. Use of heavy water reactors has been particularly attractive for the nation because it allows Uranium to be burnt with little to no enrichment capabilities. India has also done a great amount of work in the development of a Thorium centered fuel cycle. While Uranium deposits in the nation are limited (see next paragraph) there are much greater reserves of Thorium and it could provide hundreds of times the energy with the same mass of fuel. The fact that Thorium can theoretically be utilized in heavy water reactors has tied the development of the two. A prototype reactor that would burn Uranium-Plutonium fuel while irradiating a Thorium blanket is under construction at the Madras/Kalpakkam Atomic Power Station.
Uranium used for the weapons program has been separate from the power program, using Uranium from indigenous reserves. This domestic reserve of 80,000 to 112,000 tons of uranium (approx 1% of global uranium reserves) is large enough to supply all of India's commercial and military reactors as well as supply all the needs of India's nuclear weapons arsenal. Currently, India's nuclear power reactors consume, at most, 478 metric tonnes of uranium per year.[27] Even if India were quadruple its nuclear power output (and reactor base) to 20GW by 2020, nuclear power generation would only consume 2000 metric tonnes of uranium per annum. Based on India's known commercially viable reserves of 80,000 to 112,000 tons of uranium, this represents a 40 to 50 years uranium supply for India's nuclear power reactors (note with reprocessing and breeder reactor technology, this supply could be stretched out many times over). Furthermore, the uranium requirements of India's Nuclear Arsenal are only a fifteenth (1/15) of that required for power generation (approx. 32 tonnes), meaning that India's domestic fissile material supply is more than enough to meet all needs for it strategic nuclear arsenal. Therefore, India has sufficient uranium resources to meet its strategic and power requirements for the foreseeable future.[27]
[edit]Nuclear power plants
Currently, twenty nuclear power reactors produce 4,780.00 MW (2.9% of total installed base).[28][29]
Power station Operator State Type Units Total capacity (MW) Kaiga NPCIL Karnataka PHWR 220 x 4 880 Kakrapar NPCIL Gujarat PHWR 220 x 2 440 Kalpakkam NPCIL Tamil Nadu PHWR 220 x 2 440 Narora NPCIL Uttar Pradesh PHWR 220 x 2 440 Rawatbhata NPCIL Rajasthan PHWR 100 x 1
200 x 1
220 x 41180 Tarapur NPCIL Maharashtra BWR (PHWR) 160 x 2
540 x 21400 Total 20 4780 The projects under construction are:[30][citation needed]
Power station Operator State Type Units Total capacity (MW) Kudankulam NPCIL Tamil Nadu VVER-1000 1000 x 2 2000 Kalpakkam NPCIL Tamil Nadu PFBR 500 x 1 500 Kakrapar NPCIL Gujarat PHWR 700 x 2 1400 Rawatbhata NPCIL Rajasthan PHWR 700 x 2 1400 Banswara NPCIL Rajasthan PHWR 700 x 2 1400 Total 8 6700 The planned projects are:[citation needed]
Power station Operator State Type Units Total capacity (MW) Kudankulam NPCIL Tamil Nadu VVER-1200 1200 x 2 2400 Jaitapur NPCIL Maharashtra EPR 1650 x 6 9900 Kaiga NPCIL Karnataka PWR 1000 x 1, 1500 x 1 2500 Bhavini PFBR 470 x 4 1880 NPCIL AHWR 300 300 NTPC PWR 1000 x 2 2000 NPCIL PHWR 640 x 4 2560 Total 21 21540 The following projects are firmly proposed:[citation needed]
Power station Operator State Type Units Total capacity (MW) Kudankulam NPCIL Tamil Nadu VVER-1200 1200 x 2 2400 Jaitapur NPCIL Maharastra EPR 1600 x 2 3200 Pati Sonapur Orissa PWR 6000 Kumaharia Haryana PWR 2800 Saurashtra Gujarat PWR Pulivendula NPCIL 51%, AP Genco 49% Andhra Pradesh PWR 2000 x 1 2000 Kovvada Andhra Pradesh PWR Haripur West Bengal PWR Total 15 The following projects are proposed and to be confirmed soon.
Power station Operator State Type Units Total capacity (MW) Kudankulam NPCIL Tamil Nadu VVER-1200 1200 x 2 2400 Total 2 2400 [edit]Accidents
Main article: Nuclear accidents by countrySeveral nuclear accidents have occurred in India:[31]
Nuclear power plant accidents in India[32][33] Date Location Description Cost
(in millions
2006 US$)4 May 1987 Kalpakkam, India Fast Breeder Test Reactor at Kalpakkam refuelling accident that ruptures the reactor core, resulting in a two-year shutdown 300 10 September 1989 Tarapur, Maharashtra, India Operators at the Tarapur Atomic Power Station find that the reactor had been leaking radioactive iodine at more than 700 times normal levels. Repairs to the reactor take more than a year 78 13 May 1992 Tarapur, Maharashtra, India A malfunctioning tube causes the Tarapur Atomic Power Station to release 12 curies of radioactivity 2 31 March 1993 Bulandshahr, Uttar Pradesh, India The Narora Atomic Power Station suffers a fire at two of its steam turbine blades, no damage to the reactor. All major cables burnt. 220 2 February 1995 Kota, Rajasthan, India The Rajasthan Atomic Power Station leaks radioactive helium and heavy water into the Rana Pratap Sagar River, necessitating a two-year shutdown for repairs 280 22 October 2002 Kalpakkam, India Almost 100 kg radioactive sodium at a fast breeder reactor leaks into a purification cabin, ruining a number of valves and operating systems 30 It is estimated that before the accident at Tarapur, lack of proper maintenance exposed more than 3000 Indian personnel to "very high" and "hazardous" radiation levels. Researchers at the American University calculated at least 124 "hazardous incidents" at nuclear plants in India between 1993 and 1995.[31]
[edit]See also
[edit]References
- ^ "~6429693.xls" (PDF). Retrieved 2010-08-22.
- ^ Verma, Nidhi (2008-08-18). "Westinghouse, Areva eye India nuclear plants-paper". Reuters. Retrieved 2010-08-22.
- ^ "India eyeing 64,000 MW nuclear power capacity by 2032: NPCIL". The Economic Times. 2010-10-11.
- ^ Pham, Lisa (2009-10-20). "Considering an Alternative Fuel for Nuclear Energy". New York Times.
- ^ "Russia fulfis promise, supplies uranium to India". Expressindia.com. Retrieved 2010-08-22.
- ^ "Uranium shortage holding back India's nuclear power drive - Corporate News". livemint.com. 2008-06-30. Retrieved 2010-08-22.
- ^ "Ministry of Power". Powermin.gov.in. Retrieved 2010-08-22.
- ^ "news.outlookindia.com". Outlookindia.com. Retrieved 2010-08-22.
- ^ "India, France agree on civil nuclear cooperation". Rediff.com. Retrieved 2010-08-22.
- ^ "Bush signs India-US nuclear deal into law - Home". livemint.com. 2008-10-09. Retrieved 2010-08-22.
- ^ "UK, India sign civil nuclear accord". Reuters. 2010-02-13. Retrieved 2010-08-22.
- ^ "Canada, India reach nuclear deal". Montrealgazette.com. 2009-11-29. Retrieved 2010-08-22.
- ^ "India to get 510 tonnes of uranium from Kazakhstan, Russia". Hindu Business Line.
- ^ "South Asia | Russia agrees India nuclear deal". BBC News. 2009-02-11. Retrieved 2010-08-22.
- ^ "India, Kazakhstan sign nuclear pact". Financial Express.
- ^ Sanjay Dutta, TNN, Jan 23, 2009, 01.35am IST (2009-01-23)."Kazakh nuclear, oil deals hang in balance - International Business - Business - The Times of India". Timesofindia.indiatimes.com. Retrieved 2010-08-22.
- ^ India, Argentina ink agreement on peaceful uses of N-energy,the Hindu
- ^ "India, Namibia sign uranium supply deal".
- ^ "Indian firm acquires uranium mining rights in Niger | Uranium, Niger, Company, Bajla, Government". taurianresources.co.in. Retrieved 2010-12-22.
- ^ "Slowdown not to affect India's nuclear plans". Business-standard.com. 2009-01-21. Retrieved 2010-08-22.
- ^ "Nuclear power generation to touch 6,000 Mw by next year". Business-standard.com. Retrieved 2010-08-26.
- ^ "Areva to build two nuclear reactors in India-paper". Reuters. 2009-02-03. Retrieved 2010-08-22.
- ^ (http://www.npcil.nic.in/PlantsInOperation.asp
- ^ "India's fast breeder reactor nears second milestone". Chennai, India: Hindu.com. 2009-06-16. Retrieved 2010-08-26.
- ^ [1][dead link]
- ^ "At G-8, Singh, Bush reaffirm commitment to nuclear deal - Economy and Politics". livemint.com. 2008-07-10. Retrieved 2010-08-22.
- ^ a bhttp://www.carnegieendowment.org/files/atomsforwarfinal4.pdf
- ^ "Nuclear Power Plants In India - Nuclear Power Corporation of India Limited". Npcil.nic.in. Retrieved 2011-01-21.
- ^ "India's 20th nuclear reactor connected to power grid". The Times of India. 2011-01-19. Retrieved 2011-01-22.
- ^ "Projects Under Construction - Nuclear Power Corporation of India Limited". Npcil.nic.in. Retrieved 2011-01-22.
- ^ a b Benjamin K. Sovacool. A Critical Evaluation of Nuclear Power and Renewable Electricity in Asia, Journal of Contemporary Asia, Vol. 40, No. 3, August 2010, p. 380.
- ^ Benjamin K. Sovacool. A Critical Evaluation of Nuclear Power and Renewable Electricity in Asia, Journal of Contemporary Asia, Vol. 40, No. 3, August 2010, pp. 393–400.
- ^ Benjamin K. Sovacool (2009). The Accidental Century - Prominent Energy Accidents in the Last 100 Years
[show]Nuclear power in India [show]Economy of India topics [show]Nuclear power by country - Nuclear Power Generation (2006-07 to 2010-11)YearGross Generation (MUs)Capacity Factor (%)Availability Factor (%)2010-11
(Upto January - 2011)2083468882009-101883161922008-091492750822007-081695653832006-07188806485Total Nuclear Power Plant Capacity : 4780 Project Capacity (MWe) Expected Commercial Operation KUDANKULAM ATOMIC POWER PROJECT 2 x 1000 Unit 1 – Jun-2011
Unit 2 – Mar-2012RAJASTHAN ATOMIC POWER PROJECT 2 x 700 Unit 7 – Jun-2016
Unit 8 – Dec-2016KAKRAPAR ATOMIC POWER PROJECT 2 x 700 Unit 3 – Jun-2015
Unit 4 – Dec-2015
Right to Information Act, 2005 (here-in-after Act) is provided for setting out the practical regime of right to information for citizens to secure access to information under the control of public authorities, in order to promote transparency and accountability in the working of every public authority. Nuclear Power Corporation of India Limited, Vikram Sarabhai Bhavan, Anushakti Nagar, Mumbai - 400 094 is a Public Sector Enterprise.
In compliance with Chapter-II, Section 4(1) Sub-clause b), the information is placed as:
S.K.Shrivastava
Central Public Information Officer,
Nuclear Power corporation of India Ltd.,
11-S-22 , Vikaram Sarabhai Bhavan,
Anushakti Nagar, Mumbai 400 094.Tel no
: 022-2599 2119/1230 Mobile No. : 09892130644 Fax : 022 2599-1243 Email : sshrivastava@npcil.co.in cpio@npcil.co.in RIGHT TO INFORMATION
http://www.npcil.nic.in/main/RTI.aspxDate Title 10 Feb 2011 Public Trust Deficit, Yes ; But in Dr. Gopalkrishnan 08 Feb 2011 WithIn the Obvious First, Mr BIDWAI 04 Feb 2011 55 New Species of Birds Spotted at Narora during the Bird Marathon-2011 02 Feb 2011 First Synchronization of KGS-4 01 Feb 2011 Nuclear Power Corporation of India Limited (NPCIL) and Engineers India Limited (EIL) sign Memorandum of Cooperation (ENGLISH) 01 Feb 2011 Nuclear Power Corporation of India Limited (NPCIL) and Engineers India Limited (EIL) sign Memorandum of Cooperation (HINDI) 27 Jan 2011 Survey of Important Bird Areas and Census of Birds – Vedanthangal and Karikili Bird Sanctuaries 25 Jan 2011 Integrity Test of KKNPP- 1 containment completed successfully 19 Jan 2011 Kaiga-4, India's 20th Nuclear Reactor, Synchronised with the Grid 13 Jan 2011 KAPS-1 Resumes Operation after R & M 12 Jan 2011 NPCIL sets new records 06 Jan 2011 Source of Inspiration for Other Plants - An article published in Nuclear Plant Journal Nuclear and radiation accidents
From Wikipedia, the free encyclopediaThis article is about nuclear and radiation accidents in general. For a list of military nuclear accidents, see List of military nuclear accidents. For a list of civilian nuclear accidents, see List of civilian nuclear accidents. For a discussion of the controversy over nuclear power, see Nuclear debate (disambiguation).Radiation poisoning Accidents · Experiments ·
Biological timelineConditions Radiation dermatitis · Radiation recall reactions ·Radiation acne · Radiation cancer · Radiation-induced lung injury Treatments Dose fractionation · Radioresistance · Radiation protection · Radiation dose reconstruction The neutrality of this article is disputed. Please see the discussion on the talk page. Please do not remove this message until the dispute is resolved. (January 2011) A nuclear and radiation accident is defined by the International Atomic Energy Agency as "an event that has led to significant consequences to people, the environment or the facility. Examples include lethal effects to individuals, large radioactivity release to the environment, orreactor core melt."[1] The prime example of a "major nuclear accident" is one in which a reactor core is damaged and large amounts of radiation are released, such as in the Chernobyl Disasterin 1986.
The likelihood and potential impact of nuclear accidents has been a topic of debate practically since the first nuclear reactors were constructed. It has also been a key factor in public concern about nuclear facilities.[2] Many technical measures to reduce the risk of accidents or (should one occur) to minimize the amount of radioactivity released to the environment have been adopted. Despite the use of such measures, "there have been many accidents with varying impacts as well near misses and incidents".[2]
Stuart Arm states, "apart from Chernobyl, no nuclear workers or members of the public have ever died as a result of exposure to radiation due to a commercial nuclear reactor incident."[3]
Benjamin K. Sovacool has reported that worldwide there have been 99 accidents at nuclear power plants.[4] Fifty-seven accidents have occurred since the Chernobyl disaster, and almost two-thirds (56 out of 99) of all nuclear-related accidents have occurred in the USA. Relatively few accidents involved fatalities.[4]
Serious radiation accidents include the radiotherapy accident in Costa Rica,[5]radiotherapy accident in Zaragoza,[6] radiation accident in Morocco,[7] Goiania accident,[8] radiation accident in Mexico City, radiotherapy unit accident in Thailand,[9] and the Mayapuri radiological accident.[9]
The International Atomic Energy Agency maintains a website reporting recent accidents: [14].
Contents
[hide][edit]History
The worst nuclear accident to date was the Chernobyl disaster which occurred in 1986 in Ukraine. That accident killed 56 people directly, and caused an estimated 4,000 additional cases of fatal cancer, as well as damaging approximately $7 billion of property.[10] Radioactive fallout from the accident was concentrated in areas of Belarus, Ukraine and Russia. Approximately 350,000 people were forcibly resettled away from these areas soon after the incident.[10]
Comparing the historical safety record of civilian nuclear energy with other forms of electrical generation, Ball, Roberts, and Simpson, the IAEA, and the Paul Scherrer Institute found in separate studies that during the period from 1970 - 1992, there were just 39 on-the-job deaths of nuclear power plant workers worldwide, while during the same time period, there were 6,400 on-the-job deaths of coal power plant workers, 1,200 on-the-job deaths of natural gas power plantworkers and members of the general public caused by natural gas power plants, and 4,000 deaths of members of the general public caused by hydroelectric power plants.[11][12][13] In particular, coal power plants are estimated to kill 24,000 Americans per year, due to lung disease[14] as well as causing 40,000 heart attacks per year[15] in the United States. According to Scientific American, the average coal power plant emits more than 100 times as much radiation per year than a comparatively sized nuclear power plant in the form of toxic coal waste known as fly ash.[16]
[edit]List of accidents at nuclear power plants
This section relies largely or entirely upon a single source. Please help improve this articleby introducing appropriate citations to additional sources. (January 2011) Benjamin K. Sovacool has reported that worldwide there have been 99 accidents at nuclear power plants from 1952 to 2009 (defined as incidents that either resulted in the loss of human life or more than US$50,000 of property damage, the amount the US federal government uses to define major energy accidents that must be reported), totaling US$20.5 billion in property damages.[4] Fifty-seven accidents have occurred since the Chernobyl disaster, and almost two-thirds (56 out of 99) of all nuclear-related accidents have occurred in the USA. There have been comparatively few fatalities associated with nuclear power plant accidents.[4]
Nuclear power plant accidents
with multiple fatalities and/or more than US$100 million in property damage, 1952-2010[4][10][17]Date Location Description Deaths I-131
Release
in 1,000Ci[18]Cost
(in millions
2006 $US)INES
level[19]January 3, 1961 Idaho Falls, Idaho, US Explosion at National Reactor Testing Station 3 0.08 22 February 22, 1977 Jaslovské Bohunice, Czechoslovakia Severe corrosion of reactor and release of radioactivity into the plant area, necessitating total decommission 0 1,700 4 March 28, 1979 Middletown, Pennsylvania, US Loss of coolant and partial core meltdown, see Three Mile Island accident and Three Mile Island accident health effects 0 0.017 2,400 5 September 15, 1984 Athens, Alabama, US Safety violations, operator error, and design problems force six year outage at Browns Ferry Unit 2 0 110 March 9, 1985 Athens, Alabama, US Instrumentation systems malfunction during startup, which led to suspension of operations at all three Browns Ferry Units 0 1,830 April 11, 1986 Plymouth, Massachusetts, US Recurring equipment problems force emergency shutdown of Boston Edison's Pilgrim Nuclear Power Plant 0 1,001 April 26, 1986 Pripyat, Ukraine Steam explosion and meltdown (see Chernobyl disaster) necessitating the evacuation of 300,000 people from Kiev and dispersing radioactive material across Europe (see Chernobyl disaster effects) 53 7000 6,700 7 May 4, 1986 Hamm-Uentrop, Germany Experimental THTR-300 reactor releases small amounts of fission products (0.1 GBq Co-60, Cs-137, Pa-233) to surrounding area 0 0 267 March 31, 1987 Delta, Pennsylvania, US Peach Bottom units 2 and 3 shutdown due to cooling malfunctions and unexplained equipment problems 0 400 December 19, 1987 Lycoming, New York, US Malfunctions force Niagara Mohawk Power Corporation to shut down Nine Mile Point Unit 1 0 150 March 17, 1989 Lusby, Maryland, US Inspections at Calvert Cliff Units 1 and 2 reveal cracks at pressurized heater sleeves, forcing extended shutdowns 0 120 November 24, 1989 Greifswald, East Germany Electrical error causes fire in the main trough that destroys control lines and five main coolant pumps 0 443 February 20, 1996 Waterford, Connecticut, US Leaking valve forces shutdown Millstone Nuclear Power PlantUnits 1 and 2, multiple equipment failures found 0 254 September 2, 1996 Crystal River, Florida, US Balance-of-plant equipment malfunction forces shutdown and extensive repairs at Crystal River Unit 3 0 384 September 30, 1999 Ibaraki Prefecture, Japan Workers at the Tokaimura uranium processing facility try to save time by mixing uranium in buckets, killing two and exposing one more to radiation levels above permissible limits 2 54 4 February 16, 2002 Oak Harbor, Ohio, US Severe corrosion of control rod forces 24-month outage ofDavis-Besse reactor 0 143 3 August 9, 2004 Fukui Prefecture, Japan Steam explosion at Mihama Nuclear Power Plant kills 5 workers and injures dozens more 5 9 1 [edit]Radiation accidents
Serious radiation accidents include:
- 29 September 1957 – Mayak nuclear waste storage tank explosion at Chelyabinsk. Two hundred plus fatalities, believed to be a conservative estimate; 270,000 people were exposed to dangerous radiation levels. Over thirty small communities had been removed from Soviet maps between 1958 and 1991.[20] (INES level 6).[19]
- July 4, 1961 – Soviet submarine K-19 accident. Eight fatalities and more than 30 people were over-exposed to radiation.[6]
- 1962 – Radiation accident in Mexico City, four fatalities.
- 1979 - Church Rock uranium mill spill in New Mexico, USA.
- March 1984 – Radiation accident in Morocco, eight fatalities.[7]
- August 10, 1985 – Soviet submarine K-431 accident. Ten fatalities and 49 other people suffered radiation injuries.[21]
- September 13, 1987 – Goiania accident. Four fatalities and 249 other people received serious radiation contamination.[8]
- December 1990 – Radiotherapy accident in Zaragoza. Eleven fatalities and 27 other patients were injured.[6]
- 6 April 1993 - accident at the Tomsk-7 Reprocessing Complex, when a tank exploded while being cleaned with nitric acid. The explosion released a cloud of radioactive gas. (INES level 4).[19]
- 1996 – Radiotherapy accident in Costa Rica. Thirteen fatalities and 114 other patients received an overdose of radiation.[5]
- February 2000 - Three deaths and ten injuries resulted in Samut Prakarn when a radiation-therapy unit was dismantled.[9]
- April 2010 - Mayapuri radiological accident, India, one fatality.[9]
[edit]Accident types
[edit]Loss of coolant accident
Main article: Loss of coolantSee also: Nuclear meltdown and Design Basis Accident[edit]Criticality accidents
A criticality accident (also sometimes referred to as an "excursion" or "power excursion") occurs when a nuclear chain reaction is accidentally allowed to occur in fissile material, such as enriched uranium or plutonium. The Chernobyl accident is an example of a criticality accident. This accident destroyed a reactor at the plant and left a large geographic area uninhabitable. In a smaller scale accident at Sarov a technician working with highly enriched uranium was irradiated while preparing an experiment involving a sphere of fissile material. The Sarov accident is interesting because the system remained critical for many days before it could be stopped, though safely located in a shielded experimental hall.[22] This is an example of a limited scope accident where only a few people can be harmed, while no release of radioactivity into the environment occurred. A criticality accident with limited off site release of both radiation (gamma and neutron) and a very small release of radioactivity occurred at Tokaimura in 1999 during the production of enriched uranium fuel.[23] Two workers died, a third was permanently injured, and 350 citizens were exposed to radiation.
[edit]Decay heat
Decay heat accidents are where the heat generated by the radioactive decay causes harm. In a large nuclear reactor, a loss of coolantaccident can damage the core: for example, at Three Mile Island a recently shutdown (SCRAMed) PWR reactor was left for a length of time without cooling water. As a result the nuclear fuel was damaged, and the core partially melted. The removal of the decay heat is a significant reactor safety concern, especially shortly after shutdown. Failure to remove decay heat may cause the reactor core temperature to rise to dangerous levels and has caused nuclear accidents. The heat removal is usually achieved through several redundant and diverse systems, and the heat is often dissipated to an 'ultimate heat sink' which has a large capacity and requires no active power, though this method is typically used after decay heat has reduced to a very small value. However, the main cause of release of radioactivity in the Three Mile Island accident was a pilot-operated relief valve on the primary loop which stuck in the open position. This caused the overflow tank into which it drained to rupture and release large amounts of radioactive cooling water into the containment building.
[edit]Transport
Transport accidents can cause a release of radioactivity resulting in contamination or shielding to be damaged resulting in direct irradiation. InCochabamba a defective gamma radiography set was transported in a passenger bus as cargo. The gamma source was outside the shielding, and it irradiated some bus passengers.
In the United Kingdom, it was revealed in a court case that in March 2002 a radiotherapy source was transported from Leeds to Sellafield with defective shielding. The shielding had a gap on the underside. It is thought that no human has been seriously harmed by the escaping radiation.[24]
[edit]Equipment failure
Equipment failure is one possible type of accident, recently at Białystok in Poland the electronics associated with a particle accelerator used for the treatment of cancer suffered a malfunction.[25] This then led to the overexposure of at least one patient. While the initial failure was the simple failure of a semiconductor diode, it set in motion a series of events which led to a radiation injury.
A related cause of accidents is failure of control software, as in the cases involving the Therac-25 medical radiotherapy equipment: the elimination of a hardware safety interlock in a new design model exposed a previously undetected bug in the control software, which could lead to patients receiving massive overdoses under a specific set of conditions.
[edit]Human error
An assessment conducted by the Commissariat à l'Énergie Atomique (CEA) in France concluded that no amount of technical innovation can eliminate the risk of human-induced errors associated with the operation of nuclear power plants. Two types of mistakes were deemed most serious: errors committed during field operations, such as maintenance and testing, that can cause an accident; and human errors made during small accidents that cascade to complete failure.[26]
In 1946 Canadian Manhattan Project physicist Louis Slotin performed a risky experiment known as "tickling the dragon's tail" [27] which involved two hemispheres ofneutron-reflective beryllium being brought together around a plutonium core to bring it to criticality. Against operating procedures, the hemispheres were separated only by a screwdriver. The screwdriver slipped and set off a chain reaction criticality accident filling the room with harmful radiation and a flash of blue light (caused by excited, ionized air particles returning to their unexcited states). Slotin reflexively separated the hemispheres in reaction to the heat flash and blue light, preventing further irradiation of several co-workers present in the room. However Slotin absorbed a lethal dose of the radiation and died nine days afterwards.
[edit]Lost source
Lost source accidents,[28][29] also referred to as an orphan source are incidents in which a radioactive source is lost, stolen or abandoned. The source then might cause harm to humans. For example, in 1996 sources were left behind by the Soviet army in Lilo, Georgia.[30] Another case occurred at Yanango where a radiography source was lost, also at Samut Prakarn a cobalt-60 teletherapy source was lost [31] and atGilan in Iran a radiography source harmed a welder.[32] The best known example of this type of event is the Goiânia accident which occurred in Brazil.
The International Atomic Energy Agency has provided guides for scrap metal collectors on what a sealed source might look like.[33][34] The scrap metal industry is the one where lost sources are most likely to be found.[35]
[edit]Others
Some accidents defy classification. These accidents happen when the unexpected occurs with a radioactive source. For instance if a birdwere to grab a radioactive source containing radium from a window sill and then fly away with it, return to its nest and then die shortly afterwards from direct irradiation then a minor radiation accident would have occurred. As the hypothetical act of placing the source on a window sill by a human permitted the bird access to the source, it is unclear how such an event should be classified, as a lost source event or a something else. Radium lost and found[36][37] describes a tale of a pig walking about with a radium source inside; this was a radium source lost from a hospital. There are also accidents which are "normal" industrial accidents that involve radioactive material. For instance arunaway reaction at Tomsk involving red oil caused radioactive material to be spread around the site.
For a list of many of the most important accidents see the International Atomic Energy Agency site.[38]
[edit]Analyses of nuclear power plant accidents
The Nuclear Regulatory Commission (NRC) now requires each nuclear power plant in the U.S. to have a probabilistic risk assessment (PRA) performed upon it. The two types of such plants in the US (as of 2007) are boiling water reactors and pressurized water reactors, and a study based on two early such PRAs was done (NUREG-1150) and released to the public. However, those early PRAs made unrealistically conservative assumptions, and the NRC is now generating a new study: SOARCA.
The examples and perspective in this article deal primarily with the United States and do not represent a worldwide view of the subject. Please improve this article and discuss the issue on the talk page. (December 2010) [edit]Nuclear Regulatory Commission
Nuclear Regulatory Commission Headquarters and Regional staff members typically participate in four full-scale and emergency response exercises each year, selected from among the list of full-scale Federal Emergency Management Agency (FEMA)-graded exercises required of nuclear facilities. Regional staff members and selected Headquarters staff also participate in post-plume, ingestion phase response exercises. On-scene participants include the NRC licensee, and State, county, and local emergency response agencies.[39] This allows for Federal interagency participation that will provide increased preparedness during the potential for an event at an operating nuclear reactor.
The US Nuclear Regulatory Commission, (NRC) collects reports of incidents occurring at regulated facilities. The agency currently[40] uses a 4 level taxonomy to classify reported incidents:[41]
- Notification of Unusual Event (not listed as accidents below)
-
- Unusual events are in process or have occurred which indicate a potential degradation of the level of safety of the plant. No releases of radioactive material requiring offsite response or monitoring are expected unless further degradation of safety systems occurs.
Not all reportable events constitute accidents. Incidents which threaten the normal operation or security of a facility may be reportable but not result in any release of radioactivity.
The United States Department of Energy uses a similar classification system for events occurring at fuel cycle plants and facilities owned by the US government which are therefore regulated by the DOE instead of the NRC.
[edit]NRC Alerts
- Events are in process or have occurred which involve an actual or potential substantial degradation of the level of safety of the plant. Any releases expected to be limited to small fractions of the EPA Protective Action Guideline exposure levels.
- Indian Point Unit 2, Buchanan, New York, 15-Feb-2000.[42]
[edit]NRC Site Area Emergencies
- Events are in process or have occurred which involve actual or likely major failures of plant functions needed for protection of the public. Any releases not expected to exceed EPA Protective Action Guideline exposure levels except near site boundary.
- LaSalle County Nuclear Generating Station Unit 1, Seneca, Illinois, 20-Feb-2006.[43]
- Honeywell International, Metropolis, Illinois, 22-Dec-2003.[44]
- Idaho National Engineering & Environmental Laboratory, Idaho Falls, Idaho, 27-Jul-2000 and 17-Sep-2000.[45][46]
- Idaho National Engineering & Environmental Laboratory, Idaho Falls, Idaho, 12-Jul-1999.[47]
- Nuclear Fuel Services, Erwin, Tennessee, 2-Apr-1996.[48]
- Nine Mile Point Unit 2, Oswego, New York, 13-Aug-1991.[49]
- Vogtle Electric Generating Plant Unit 1, Burke County, Georgia, 20-Mar-1990.[50]
- Davis-Besse, Oak Harbor, Ohio, 09-Jun-1985. Originally declared as an "Unusual Event" but upgraded by NRC findings.[51]
- Ginna, Ontario, New York, 25-Jan-1982.[52][53][54]
[edit]NRC General Emergencies
- Events are in process or have occurred which involve actual or imminent substantial core degradation or melting with potential for loss of containment integrity. Releases can be reasonably expected to exceed EPA Protective Action Guideline exposure levels offsite for more than the immediate site area.
- Three Mile Island Unit 2, 28-Mar-1979.
[edit]See also
- Background radiation
- Chernobyl compared to other radioactivity releases
- Chernobyl disaster effects
- Common mode failure
- Duke Power Co. v. Carolina Environmental Study Group
- Fuel element failure
- Goiânia accident
- Radioactive scrap metal
- Orphan source
- International Nuclear Events Scale
- Ionizing radiation (for a table of radiation exposures)
- List of Chernobyl-related articles
- List of crimes involving radioactive substances
- List of disasters
- List of dam failures
- List of oil spills
- List of nuclear reactors
- Lists of nuclear disasters and radioactive incidents
- Nuclear debate
- Radiation
- Radioactive contamination
- Radiation poisoning
- Radioactive waste
- United States military nuclear incident terminology
- World Association of Nuclear Operators (WANO)
[edit]References
- ^ Staff, IAEA, AEN/NEA (in Technical English). [www-pub.iaea.org/MTCD/publications/PDF/INES-2009_web.pdf International Nuclear and Radiological Events Scale Users' Manual, 2008 Edition]. Vienna, Austria: International Atomic Energy Agency. p. 184. Retrieved 2010-07-26.
- ^ a b M.V. Ramana. Nuclear Power: Economic, Safety, Health, and Environmental Issues of Near-Term Technologies, Annual Review of Environment and Resources, 2009, 34, p. 136.
- ^ Arm, Stuart T. (07 2010). "Nuclear Energy: A Vital Component of Our Energy Future". Chemical Engineering Progress (New York, NY: American Institute of Chemical Engineers): 27–34. ISSN 0360-7275. OCLC 1929453. Retrieved 2010-07-26.
- ^ a b c d e Benjamin K. Sovacool. A Critical Evaluation of Nuclear Power and Renewable Electricity in Asia Journal of Contemporary Asia, Vol. 40, No. 3, August 2010, pp. 393–400.
- ^ a b Medical management of radiation accidents pp. 299 & 303.
- ^ a b c Strengthening the Safety of Radiation Sources p. 15.
- ^ a b Lost Iridium-192 Source
- ^ a b The Radiological Accident in Goiania p. 2.
- ^ a b c d Pallava Bagla. "Radiation Accident a 'Wake-Up Call' For India's Scientific Community" Science, Vol. 328, 7 May 2010, p. 679.
- ^ a b c Benjamin K. Sovacool. A preliminary assessment of major energy accidents, 1907–2007, Energy Policy 36 (2008), pp. 1802-1820.
- ^ Research Report #20. United Kingdom: University of East Anglia. 1994.
- ^ Hirschberg et al, Paul Scherrer Institut, 1996; in: IAEA, Sustainable Development and Nuclear Power, 1997
- ^ Severe Accidents in the Energy Sector, Paul Scherrer Institut, 2001.
- ^ "Senator Reid tells America coal makes them sick". 2008-07-10. Retrieved 2009-05-18.
- ^ "Deadly power plants? Study fuels debate". 2004-06-09. Retrieved 2009-05-18.
- ^ Scientific American, December 13, 2007"Coal Ash Is More Radioactive than Nuclear Waste". 2009-05-18. Retrieved 2009-05-18.
- ^ Benjamin K. Sovacool (2009). The Accidental Century - Prominent Energy Accidents in the Last 100 Years
- ^ The Nuclear Power Deception Table 7: Some Reactor Accidents
- ^ a b c Timeline: Nuclear plant accidents BBC News, 11 July 2006.
- ^ Samuel Upton Newtan. Nuclear War I and Other Major Nuclear Disasters of the 20th Century 2007, pp. 237–240.
- ^ The Worst Nuclear Disasters
- ^ [1]
- ^ [2]
- ^ "Road container 'leaked radiation'". BBC News. February 17, 2006.
- ^ [3]
- ^ Benjamin K. Sovacool. A Critical Evaluation of Nuclear Power and Renewable Electricity in Asia, Journal of Contemporary Asia, Vol. 40, No. 3, August 2010, p. 381.
- ^ Jungk, Robert. Brighter than a Thousand Suns. 1956. p.194
- ^ IAEA BULLETIN, 41/3/1999
- ^ [4]
- ^ The radiological accident in Lilo, Georgia, WHO/REMPAN, 2002
- ^ [5]
- ^ [6]
- ^ [7]
- ^ [8]
- ^ [9]
- ^ [10]
- ^ [11]
- ^ [12]
- ^ [13]
- ^ As of 2006
- ^ Criterion for Preparation and Evaluation of Radiological Emergency Response Plans and Preparedness in support of Nuclear Power Plants
- ^ NRC Information Notice 2000-09
- ^ NRC Event Number 42348
- ^ NRC Event Number 40405
- ^ ref NRC Event Number 37193
- ^ NRC Event Number 37337
- ^ NRC Event Number 35915
- ^ NRC Commission Paper SECY 96-076
- ^ NRC Information Notice 91-64
- ^ NRC Information Notice 90-25
- ^ NRC Information Notice 85-80
- ^ NRC Generic Letter GL-82008
- ^ NRC Generic Letter GL-82011
- ^ NUREG-0909 and NUREG-0916 both seem to be missing from the NRC web site
[edit]External links
- U.S. Nuclear Accidents (lutins.org) most comprehensive online list of incidents involving U.S. nuclear facilities and vessels, 1950–present
- US Nuclear Regulatory Commission (NRC) website with search function and electronic public reading room
- International Atomic Energy Agency website with extensive online library
- Canada's Nuclear Safety Commission (CNSC)
- Chernobyl Children's Project International
- Concerned Citizens for Nuclear Safety Detailed articles on nuclear watchdog activities in the US
- World Nuclear Association: Radiation Doses Background on ionizing radiation and doses
- Canadian Centre for Occupational Health & Safety More information on radiation units and doses.
- Radiological Incidents Database Extensive, well-referenced list of radiological incidents
- A Review of Criticality Accidents
- Nuclear Files.org List of nuclear accidents
- Annotated bibliography for civilian nuclear accidents from the Alsos Digital Library for Nuclear Issues
- Critical Hour: Three Mile Island, The Nuclear Legacy, And National Security. Albert J. Fritsch, Arthur H. Purcell, and Mary Byrd Davis (2005).Updated edition, June 2006
[hide]Radiation (Physics & Health) Main articles Radiation health effects Related articles See also: Category:Radiation effects · Category:Radioactivity · Category:Radiation health effects · Category:Radiobiology -
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From Wikipedia, the free encyclopediaThis article may require cleanup to meet Wikipedia's quality standards. Please improve this article if you can. The talk page may contain suggestions. (January 2011) This article needs additional citations for verification.
Please help improve this article by adding reliable references. Unsourced material may be challenged and removed.(January 2011)Contents
[hide]- 1 Algeria
- 2 Antarctica
- 3 Argentina
- 4 Armenia
- 5 Australia
- 6 Austria
- 7 Bangladesh
- 8 Belarus
- 9 Belgium
- 10 Brazil
- 11 Bulgaria
- 12 Canada
- 13 Chile
- 14 China
- 15 Colombia
- 16 Democratic Republic of the Congo
- 17 Cuba
- 18 Czech Republic
- 19 Denmark
- 20 Egypt
- 21 Estonia
- 22 Finland
- 23 France
- 24 Germany
- 25 Greece
- 26 Hungary
- 27 India
- 28 Indonesia
- 29 Iran
- 30 Iraq
- 31 Israel
- 32 Italy
- 33 Jamaica
- 34 Japan
- 35 Kazakhstan
- 36 Latvia
- 37 Libya
- 38 Lithuania
- 39 Malaysia
- 40 Mexico
- 41 Morocco
- 42 Netherlands
- 43 North Korea
- 44 Norway
- 45 Pakistan
- 46 Panama
- 47 Peru
- 48 Philippines
- 49 Poland
- 50 Portugal
- 51 Puerto Rico
- 52 Romania
- 53 Russia
- 54 Serbia
- 55 Slovakia
- 56 Slovenia
- 57 South Africa
- 58 South Korea
- 59 Spain
- 60 Sweden
- 61 Switzerland
- 62 Syria
- 63 Taiwan
- 64 Thailand
- 65 Turkey
- 66 Ukraine
- 67 United Kingdom
- 68 United States of America
- 69 Uruguay
- 70 Uzbekistan
- 71 Venezuela
- 72 Vietnam
- 73 See also
- 74 References
- 75 External links
List of nuclear reactors is an annotated list of all the nuclear reactors of the world, sorted by country. This list excludes nuclear marine propulsion reactors, except those at land installations, and excludes reactors that never achieved criticality.
[edit]Algeria
- Es Salam (The Peace), 15 MW reactor for research, located in Aïn Oussera, in service since 1993
- Nur, built by Argentine INVAP
[edit]Antarctica
- McMurdo Station – PM-3A NNPU "Nukey Poo" US Navy power reactor (operational 1962, shut down 1972, fully dismantled 1979)
[edit]Argentina
[edit]Power station reactors
[edit]Research reactors
All reactors owned and operated by the National Atomic Energy Commissionexcept as noted
- RA-0, built 1964, 0.01 kWt, tank type, owned and operated by Universidad Nacional de Córdoba
- RA-1 Enrico Fermi, built 1957, 40 kWt, tank type.
- RA-2, built 1965, 0.03 kWt, critical assembly type (shut down on 1983/09/01)
- RA-3, built 1963, 5,000 kWt, pool type.
- RA-4 (former SUR-100), built 1971, HOMOG type, owned and operated by Universidad Nacional de Rosario
- RA-6, built 1978, 500 kWt, pool type.
- RA-8, built 1986, 0.01 kWt, critical assembly type (shut down)
- CAREM, being built near Atucha I [2]
[edit]Armenia
- Metsamor Nuclear Power Plant – Two VVER-440 Model V230 reactors (Russian), one operational, one shut down in 1989
[edit]Australia
- HIFAR (High Flux Australian Reactor; 10 MWt), Lucas Heights, New South Wales, produced patient nuclear medicine doses (approx half a million a year) for the diagnosis and treatment of major diseases such as cancer and heart disease. It first went critical on January 26, 1958 and was decommissioned January 2007[3] which will take up to 10 years to complete.
- MOATA, 100kWt Argonaut class reactor, now permanently shut down.
- HIFAR has been replaced by OPAL reactor facility supplied by Argentine INVAP. This facility first went critical at 11.25pm on August 12, 2006.[4]
[edit]Austria
- Austrian Research Centers at Seibersdorf — 10 MWASTRA research reactor (in use 1960–1999)
- Atomic Institute of the Austrian Universities in Vienna — 250 kW TRIGA Mark II research reactor (in use since 1962)
- Zwentendorf (it was completed in 1978 but after a public vote it was never filled with nuclear fuel and never started-up)
[edit]Bangladesh
[edit]Belarus
- Sosny, Minsk
- IRT research reactor (shut down 1988)
- "Pamir" - mobile nuclear power reactor test (shut down 1986)
[edit]Belgium
[edit]Power station reactors
- Nuclear Plant Doel – 4x PWR reactors, total power of 2839 MWe
- Nuclear Plant Tihange – 3x PWR reactors, total power of 2985 MWe
[edit]Research Reactors
[edit]Brazil
Main article: Nuclear power in BrazilName Type Capacity (MWe), net/gross Status Angra-1 PWR 626MWe Net CNAA-Central Commercial Operation 1985-01 Angra-2 PWR 1275MWe Net CNAA-Central Commercial Operation 2001-02 [edit]Research Reactors
- São Paulo – IEA-R1 – Pool-type reactor, 5MW – IPEN-Instituto de Pesquisas Energéticas e Nucleares, São Paulo, SP (criticality 1957-09-16)
- Belo Horizonte – IPR-R1 – TRIGA Mark I, 250 kW - CDTN-Centro de Desenvolvimento de Tecnologia Nuclear, Belo Horizonte, MG (criticality 1960-11-06)
- Rio de Janeiro – ARGONAUTA – Argonaut class reactor, 100 kW – IEN-Instituto de Engenharia Nuclear, Rio de Janeiro, RJ (criticality 1965-02-20)
- São Paulo – IPEN/MB-01 – Critical assembly, 0.1 kW – IPEN-Instituto de Pesquisas Energéticas e Nucleares, São Paulo, SP (criticality 1988-11-09)]
[edit]Bulgaria
Main article: Nuclear power in BulgariaKozloduy Nuclear Power Plant – Six reactors:
- BLOK 1 – 440 MW (Currently out of service) VVER-440/230
- BLOK 2 – 440 MW (Currently out of service) VVER-440/230
- BLOK 3 – 440 MW (Currently out of service) VVER-440/230
- BLOK 4 – 440 MW (Currently out of service) VVER-440/230
- BLOK 5 – 1000 MW VVER-1000
- BLOK 6 – 1000 MW VVER-1000
Belene Nuclear Power Plant – Two 1000 MW reactors in construction:
- BELENE 1 – 1000 MW (To be finished in 2013) VVER-1000
- BELENE 2 – 1000 MW (To be finished in 2014) VVER-1000
Sofia – IRT research reactor (shut down 1987)
[edit]Canada
Main article: Nuclear power in Canada[edit]Ontario
Ontario Power Generation Pickering A (Aerial View)
- UNIT 1 – 515 MW CANDU
- UNIT 2 – 515 MW CANDU (Currently out of service)
- UNIT 3 – 515 MW CANDU (Currently out of service)
- UNIT 4 – 515 MW CANDU
Ontario Power Generation Pickering B
Ontario Power Generation Darlington (Aerial View)
Bruce Power Bruce A (Aerial View)
- UNIT 1 – 750 MW CANDU (Under refurbishment)
- UNIT 2 – 750 MW CANDU (Under refurbishment)
- UNIT 3 – 750 MW CANDU
- UNIT 4 – 750 MW CANDU
- UNIT 1 – 785 MW CANDU
- UNIT 2 – 820 MW CANDU
- UNIT 3 – 785 MW CANDU
- UNIT 4 – 785 MW CANDU 2 new 785 MW CANDU Reactors to be built in Bruce (2013).
- Nuclear Power Demonstrator (Rolphton, Ontario) 1 decommissioned prototype
- Douglas Point (Tiverton, Ontario) 1 decommissioned large prototype
[edit]Quebec
Hydro-Québec Gentilly Nuclear Generating Station
- UNIT 1 – 275 MW CANDU-BWR (Shutdown in 1977)
- UNIT 2 – 675 MW CANDU-6
TOTAL – 950 MW
[edit]New Brunswick
NB Power Point Lepreau Nuclear Generating Station
- UNIT 1 – 635 MW CANDU-6 (Under refurbishment)
[edit]Research reactors
- Chalk River Laboratories
- MMIR-1 – MAPLE class medical isotope production reactor - canceled
- MMIR-2 – MAPLE class medical isotope production reactor - canceled
- NRU – 135 MW reactor used for research and medical isotope production
- NRX reactor – (1947–1992) One of the highest flux reactors in the world until shutdown
- SLOWPOKE-1 prototype, moved to University of Toronto, later upgraded to SLOWPOKE-2 - now decommissioned
- PTR – pool test reactor (shut down in 1990)
- ZED-2 – zero-energy reactor
- ZEEP – The first nuclear reactor in Canada, and first outside the United States
- Whiteshell Laboratories
- Dalhousie University, Halifax, Nova Scotia – SLOWPOKE-2 class reactor - being decommissioned
- Kanata – SLOWPOKE-2 class reactor (shut down in 1989)
- Tunney's Pasture – Ottawa, Ontario - SLOWPOKE-2 class reactor prototype?, (shutdown in 1984)
- École Polytechnique de Montréal, Montreal – SLOWPOKE-2 class reactor
- McMaster Nuclear Reactor – 5 MWth MTR class reactor
- Royal Military College, Kingston, Ontario – SLOWPOKE-2 class reactor
- Saskatchewan Research Council, Saskatoon – SLOWPOKE-2 class reactor
- University of Alberta, Edmonton – SLOWPOKE-2 class reactor
- University of Toronto – SLOWPOKE-2 class reactor (shut down in 2001)
[edit]Chile
- RECH 1 – Pool-type reactor, 5 MWt MTR – Comisión Chilena de Energía Nuclear, Santiago (criticality 1974)
- RECH 2 – Pool-type reactor, 10 MWt MTR – Comisión Chilena de Energía Nuclear, Santiago (criticality 1977, refurbished 1989)
[edit]China
Main article: Nuclear power in ChinaOperating units Name Type Capacity (MWe),
net / grossConstruction start Grid connection Daya Bay 1 (Guangdong 1) PWR 944 / 984 August 7, 1987 August 31, 1993 Daya Bay 2 (Guangdong 2) PWR 944 / 984 April 7, 1988 February 7, 1994 Ling'ao 1-1 (Lingao A) PWR 938 / 990 May 15, 1997 February 26, 2002 Ling'ao 1-2 (Lingao B) PWR 938 / 990 November 28, 1997 December 15, 2002 Ling'ao 2-1 PWR 938 / 990 December 15, 2005 July 15, 2010 Qinshan 1 (formerly Qinshan) PWR 279 / 300 March 20, 1985 December 15, 1991 Qinshan 2-1 (formerly Qinshan 2) PWR 610 / 642 June 2, 1996 February 6, 2002 Qinshan 2-2 (formerly Qinshan 3) PWR 610 / 642 April 1, 1997 March 11, 2004 Qinshan 2-3 PWR 610 / 642 March 28, 2006 August 1, 2010 Qinshan 3-1 PHWR 665 / 728 June 8, 1998 November 19, 2002 Qinshan 3-2 PHWR 665 / 728 September 25, 1998 June 12, 2003 Tianwan 1 (Lianyungang) VVER 1,000 / 1,060 October 20, 1999 May 12, 2006 Tianwan 2 (Lianyungang) VVER 1,000 / 1,060 October 20, 2000 May 14, 2007 Total Capacity 10,141 / 10,740 Units under construction Name Type Capacity (MWe)
net / grossConstruction start Expected completion Qinshan 2-4 PWR 610 / 650 January 28, 2007 March 28, 2012 Changjiang 1 PWR 610 / 650 April 25, 2010 2014 Changjiang 2 PWR 610 / 650 November 21, 2010 2015 Fangchenggang 1 PWR 1,000 / 1,087 July 30, 2010 2015 Fangjiashan 1 PWR 1,000 / 1,087 December 26, 2008 December 2013 Fangjiashan 2 PWR 1,000 / 1,087 July 17, 2009 October 2014 Fuqing 1 PWR 1,000 / 1,087 November 21, 2008 October 2013 Fuqing 2 PWR 1,000 / 1,087 June 17, 2009 August 2014 Fuqing 3 PWR 1,000 / 1,087 December 31, 2010 July 2015 Haiyang 1 PWR 1,000 / 1,250 September 24, 2009 May 2014 Haiyang 2 PWR 1,000 / 1,250 June 21, 2010 March 2015 Hongyanhe 1 PWR 1,000 / 1,080 August 18, 2007 October 2012 Hongyanhe 2 PWR 1,000 / 1,080 March 28, 2008 2013 Hongyanhe 3 PWR 1,000 / 1,080 March 7, 2009 2014 Hongyanhe 4 PWR 1,000 / 1,080 August 15, 2009 Ling'ao 2-2 PWR 1,000 / 1,080 June 15, 2006 August 2011 Ningde 1 PWR 1,000 / 1,087 February 18, 2008 December 2012 Ningde 2 PWR 1,000 / 1,080 November 12, 2008 2013 Ningde 3 PWR 1,000 / 1,080 January 8, 2010 2014 Ningde 4 PWR 1,000 / 1,080 September 29, 2010 2015 Sanmen 1 PWR 1,000 / 1,115 April 19, 2009 November 2013 Sanmen 2 PWR 1,000 / 1,115 December 17, 2009 September 2014 Taishan 1 PWR 1,700 / 1,750 October 28, 2009 December 2013 Taishan 2 PWR 1,700 / 1,750 April 15, 2010 November 2014 Yangjiang 1 PWR 1,000 / 1,087 December 16, 2008 August 2013 Yangjiang 2 PWR 1,000 / 1,087 June 4, 2009 2014 Yangjiang 3 PWR 1,000 / 1,087 November 15, 2010 2015 Total Capacity 27,230 / 29,690 Source: EIA Reactor Summaries, PRIS database, and WNA Country Briefings, as of February 2011.
[edit]Colombia
[edit]Democratic Republic of the Congo
- TRICO I – TRIGA reactor, University of Kinshasa (shut down 1970)
- TRICO II – TRIGA reactor, University of Kinshasa
[edit]Cuba
- Juragua Nuclear Power Plant, Cienfuegos – Construction of two 417 MW VVER-440 V213 reactors suspended in 1992 following the collapse of the Soviet Union
[edit]Czech Republic
Main article: Nuclear power in the Czech Republic- Dukovany – 4 reactors (VVER), 440 MWe each
- Temelín – 2 reactors (VVER), 1000 MWe each
- Řež – 2 research reactors (LVR-15, LR-0)
- Prague – research reactor (VR-1) at Czech Technical University
[edit]Denmark
- Risø – DR-3 DIDO class experimental reactor (shut down permanently in 2000)
- Risø – DR-2 experimental reactor (shut down in 1975)
- Risø – DR-1 experimental reactor (shut down permanently in 2001)
[edit]Egypt
- Inshas Nuclear Research Center
- ETTR-1 – 2 MW LWR (supplied by USSR, 1958)
- ETTR-2 – 22 MW reactor (supplied by Argentine INVAP, 1998)
[edit]Estonia
- Paldiski – 2 PWR naval training reactors (dismantled)
[edit]Finland
Main article: Nuclear power in Finland- Loviisa Nuclear Power Plant – 2 × 488 MWe VVER reactors
- Olkiluoto Nuclear Power Plant – 2 × 860 MWe BWR reactors, 1 × 1650 MWe EPR under construction (expected in 2012)
Research reactor:
[edit]France
Main article: Nuclear power in France- Belleville Nuclear Power Plant – 2 1310 MWe PWR reactors
- Blayais Nuclear Power Plant – 4 910 MWe PWR reactors
- Bugey Nuclear Power Plant – 4 PWR reactors: 2 at 910 MWe, 2 at 880 MWe
- Cattenom Nuclear Power Plant – 4 1300 MWe PWR reactors
- Chinon Nuclear Power Plant – 4 905 MWe PWR reactors
- Chooz Nuclear Power Plant – 2 1500 MWe PWR reactors
- Civaux Nuclear Power Plant – 2 1495 MWe PWR reactors
- Cruas Nuclear Power Plant – 4 reactors: 2 at 880 MWe, 2 at 915 MWe
- Dampierre Nuclear Power Plant – 4 890 MWe PWR reactors
- Fessenheim Nuclear Power Plant – 2 880 MWe PWR reactors - oldest operating commercial PWR reactors in France
- Flamanville Nuclear Power Plant – 2 1330 MWe PWR reactors
- Golfech Nuclear Power Plant – 2 1310 MWe PWR reactors
- Gravelines Nuclear Power Plant – 6 910 MWe PWR reactors
- Nogent Nuclear Power Plant – 2 1310 MWe PWR reactors
- Paluel Nuclear Power Plant – 4 1330 MWe PWR reactors
- Penly Nuclear Power Plant – 2 1330 MWe PWR reactors
- Phénix Nuclear Power Plant – 1 233 MWe FBR reactor
- Saint-Alban Nuclear Power Plant – 2 1335 MWe PWR reactors
- Saint-Laurent Nuclear Power Plant – 2 PWR reactors: 1 at 880 MWe, 1 at 915 MWe
- Tricastin Nuclear Power Center – 4 915 MWe PWR reactors
- Under construction:
- Flamanville – 1 1630 MWe PWR reactor; EDF is building the second EPR reactor there.
- Under planning:
- Decommissioned Power Reactors – 12 total
- Bugey – 1 540 MWe GCR reactor
- Chinon – 3 GCR reactors
- Chooz-A – 1 310 MWe PWR reactor; reactor managed by SENA (Société d'énergie nucléaire franco-belge des Ardennes).
- Marcoule – 3 38 MWe GCR reactors
- Brennilis – 1 70 MWe EL-49 heavy water reactor, the only one of its kind in France
- Saint Laurent des Eaux – 2 GCR reactors
- Superphénix, Creys-Malville – 1 1200 MWe FBR reactor
- Cancelled
- Research reactors
- Institut Laue-Langevin, currently the world's most intense source of neutrons and the source of the most intense neutron flux
- Rhapsodie
- Zoé, the first French nuclear reactor (1948)
- ICJT list
[edit]Germany
Main article: Nuclear power in Germany- Biblis Nuclear Power Plant – Biblis-A and Biblis-B
- Brokdorf Nuclear Power Plant
- Brunsbüttel Nuclear Power Plant
- Emsland Nuclear Power Plant
- Grafenrheinfeld Nuclear Power Plant
- Grohnde Nuclear Power Plant
- Gundremmingen Nuclear Power Plant – Gundremmingen-B and Grundremmingen-C, A is defunct
- Nuclear Power Plant Landshut Isar I + Isar II
- Krümmel Nuclear Power Plant
- Neckarwestheim Nuclear Power Plant
- Philippsburg Nuclear Power Plant Block A and Block B
- Unterweser Nuclear Power Plant
[edit]Research reactors
- AKR II – Ausbildungskernreaktor II, Technische Universität Dresden; rating: 2 W, commissioned 2005
- BER II – Berliner-Experimentier-Reaktor II, Hahn-Meitner-Institut Berlin; rating: 10 MW, commissioned 1990
- FRG-1 (see GKSS Research Center) – Geesthacht; rating: 5 MW, commissioned 1958
- FRM II – Technische Universität München; Leistung: 20 MW, commissioned 2004
- FRMZ – TRIGA of the University of Mainz, institute of nuclear chemistry; continuous rating: 0.10 MW, pulse rating for 30ms: 250 MW; commissioned 1965
[edit]Decommissioned
- Research nuclear plants in Jülich and Karlsruhe
- Greifswald Nuclear Power Plant located in the former GDR. Shut down in 1990 (Greifswald-1 to Greifswald-4, and the unfinished Greifswald-5 reactor), Type: VVER-440 (Russian)
- Gundremmingen-A (shut down 1977)
- Hamm-Uentrop,THTR 300, shut down in 1988
- Lingen, shut down in 1977
- Mülheim-Kärlich Nuclear Power Plant, completed, operated briefly and then shut down in 1988 because of potential hazards
- Niederaichbach, shut down in 1974
- Obrigheim, shut down in May 2005
- Rheinsberg, shut down in 1990, Type: VVER-70 (Russian)
- Stade, shut down in 2003
- Würgassen, shut down in 1994
- Kalkar, never finished
- Wyhl, famous planned nuclear plant that was never built because of long-time resistance by the local population and environmentalists.
- IJCT list
- Kahl Nuclear Power Plant
[edit]Greece
- GRR-1 – 5 MW research reactor at Demokritos National Centre for Scientific Research, Athens.
[edit]Hungary
- Paks – 4 VVER (Russian pressurized light water reactor VVER 440/v213) 500 MWe reactors. The modernization of the four reactors was finally ended at 2009, so the plant's total power generation reached 2000 MWe.
- Budapest
- Technical University of Budapest (BME) Institute of Nuclear Techniques – University Research Reactor
- KFKI Atomic Energy Research Institute (see KFKI) – (10 MW Budapest Research Reactor)
- Debrecen
- Institute of Nuclear Research of the Hungarian Academy of Sciences – 20 MV cyclotron and a 5 MV Van de Graaff accelerator
[edit]India
Main article: Nuclear power in India[edit]Power station reactors
For more information: Electricity in India [9]
Name Location Type Rating, MWe Status Tarapur Atomic Power Station Tarapur, Maharashtra BWR 160 Operational October 1969- BWR 160 Operational October 1969- PHWR 540 Operational August 2006- PHWR 540 Operational September 2005- Rajasthan Atomic Power Station Rawatbhata, Rajasthan PHWR 90 Operational December 1973- PHWR 187 Operational April 1981- PHWR 202 Operational June 2000- PHWR 202 Operational December 2000- PHWR 202 Operational December 22, 2009 PHWR 202 Operational March 28, 2010 Madras Atomic Power Station Kalpakkam, Tamilnadu PHWR 170 Operational January 1984- PHWR 220 Operational March 1986- Narora Atomic Power Station Narora, Uttar Pradesh PHWR 220 Operational January 1991- PHWR 220 Operational July 1992- Kakrapar Atomic Power Station Kakrapar, Gujarat PHWR 220 Operational May 1993- PHWR 220 Operational September 1995- PHWR 700 under construstion PHWR 700 under construstion Kaiga Atomic Power Station Kaiga, Karnataka PHWR 220 Operational November 2000- PHWR 220 Operational March 2000- PHWR 220 Operational May 2007- PHWR 220 Operational January 2011- Koodankulam Nuclear Power Plant Kudankulam, Tamilnadu VVER 1000 Under construction, online February 2011 VVER 1000 Under construction, online August 2011 Prototype Fast Breeder Reactor Kalpakkam, Tamilnadu FBR 500 Under construction Total Capacity 6,730 MWe [edit]Research and production reactors
- Bhabha Atomic Research Center (BARC) – Trombay
- Apsara reactor – 1 MWT, pool type, light water moderated, enriched uranium fuel supplied by France
- CIRUS reactor – 40 MWT, supplied by Canada, heavy water moderated, uses natural uranium fuel
- Dhruva reactor – 100 MWT, heavy water moderated, uses natural uranium fuel
- Indira Gandhi Center for Atomic Research (IGCAR) – Kalpakkam
- PFBR – 500MWe Sodium cooled fast breeder nuclear reactor, under construction. Expected completion 2011.
- FBTR – 40 MWT Fast Breeder Test Reactor, uses mixed (plutonium and uranium) carbide fuel
- KAMINI –30 kWT, uses U-233 fuel
None of these reactors is under IAEA safeguards.
[edit]Indonesia
Main article: Nuclear power in Indonesia- Bandung – TRIGA Mark II (250 kW installed 1965, 2MW installed 1997)
- Yogyakarta – TRIGA Mark II (100 kW installed 1979)
- Serpong – SIWABESSY 30MWth Multi-Purpose Reactor (installed 1987)
[edit]Iran
Main article: Nuclear program of Iran[edit]Power station reactors
- Bushehr
- Darkhovin Nuclear Power Plant(Khouzestan Province)
- Darkhovin I - Reactor System: IR-360 (PWR), a domestically developed 360 MWe NPP, as of 2010, the basic design has been finished and the works on the detailed design of the system has been started by the Iranian experts. Complementary Checks is to be done by the European incorporations. Primary construction works is to be started soon.
[edit]Research reactors
- Tehran – AMF reactor at Tehran Nuclear Research Center (supplied by USA, 1967)
- Isfahan, Nuclear Technology Center (mainly supplied by China,[6])
- MNSR – 27 kWt Miniature Neutron Source Reactor
- Light Water Subcritical Reactor (LWSCR)
- Heavy Water Zero Power Reactor (HWZPR)
- Graphite Subcritical Reactor (GSCR)
- Arak – IR-40 Heavy water-moderated Reactor (under construction, planned commissioning 2014)
[edit]Iraq
[edit]Research reactors
- IRT-5000 – 5 MWT, shut down 1991
- Osirak / "Tammuz 1" (destroyed by Israeli airstrike, June 7, 1981)
- Tammuz 2 – 500 kWT, shut down 1991
[edit]Israel
[edit]Research and production reactors
- Negev Nuclear Research Center – EL-102 uranium/heavy water research reactor, originally 24 MWT (supplied by France, operational 1962, not under IAEA safeguards)
- Soreq Nuclear Research Center – 5 MWT light water research reactor (supplied by USA, operational 1960)
[edit]Italy
Main article: Nuclear power in Italy[edit]Power station reactors
- Garigliano – BWR, 1 unit of 150 MWe, 1964–1982
- Latina – Magnox, 1 unit of 160 MWe, 1963–1987
- Caorso – BWR, shut down following Italian referendum on nuclear power
- Trino Vercellese – Shut down following Italian referendum on nuclear power
- Alto Lazio – 1964-1982
[edit]Research reactors
- Pavia – TRIGA Mark II, University of Pavia Mark II (installed 1965)
- Rome – TRIGA Mark II, ENEA Casaccia Research Center (installed 1960)
[edit]Jamaica
- SLOWPOKE-2 reactor – Kingston, Jamaica
[edit]Japan
See also: Nuclear power in Japan[edit]Power station reactors
Reactor Location Type Rating, MWe Status Operator Fukushima I-1 Futaba, Fukushima BWR 439 Operational March 1971 東京電力 - TEPCO Fukushima I-2 BWR 760 Operational July 1974 東京電力 - TEPCO Fukushima I-3 BWR 760 Operational March 1976 東京電力 - TEPCO Fukushima I-4 BWR 760 Operational October 1978 東京電力 - TEPCO Fukushima I-5 BWR 760 Operational April 1978 東京電力 - TEPCO Fukushima I-6 BWR 1067 Operational October 1979 東京電力 - TEPCO Fukushima II-1 Naraha, Fukushima BWR 1067 Operational April 1982 東京電力 - TEPCO Fukushima II-2 BWR 1067 Operational February 1984 東京電力 - TEPCO Fukushima II-3 BWR 1067 Operational June 1985 東京電力 - TEPCO Fukushima II-4 BWR 1067 Operational August 1987 東京電力 - TEPCO Genkai-1 Genkai, Saga PWR 529 Operational October 1975 九州電力 - Kyūshū Electric Genkai-2 PWR 529 Operational March 1981 九州電力 - Kyūshū Electric Genkai-3 PWR 1127 Operational March 1994 九州電力 - Kyūshū Electric Genkai-4 PWR 1127 Operational July 1997 九州電力 - Kyūshū Electric Hamaoka-1 Omaezaki, Shizuoka BWR 515 Operational March 1976 中部電力 - Chūbu Electric Hamaoka-2 BWR 806 Operational November 1978 中部電力 - Chūbu Electric Hamaoka-3 BWR 1056 Operational August 1987 中部電力 - Chūbu Electric Hamaoka-4 BWR 1092 Operational September 1993 中部電力 - Chūbu Electric Hamaoka-5 ABWR 1380 Operational January 2005 中部電力 - Chūbu Electric Higashidōri-1 Higashidōri, Aomori BWR 1067 Operational December 2005 東北電力 - Tōhoku Electric Higashidōri-1 Higashidōri, Aomori ABWR Construction to begin 2008 東京電力 - TEPCO Higashidōri-2 Higashidōri, Aomori ABWR Construction to begin 2010 東北電力 - Tōhoku Electric Higashidōri-2 Higashidōri, Aomori ABWR Construction to begin 2011 東京電力 - TEPCO Ikata-1 Ikata, Ehime PWR 538 Operational September 1977 四国電力 - YONDEN Ikata-2 PWR 838 Operational March 1982 四国電力 - YONDEN Ikata-3 PWR 846 Operational December 1994 四国電力 - YONDEN Kashiwazaki-Kariwa-1 Kashiwazaki, Niigata BWR 1067 Operational September 1985 東京電力 - TEPCO Kashiwazaki-Kariwa-2 BWR 1067 Operational September 1990 東京電力 - TEPCO Kashiwazaki-Kariwa-3 BWR 1067 Operational August 1993 東京電力 - TEPCO Kashiwazaki-Kariwa-4 BWR 1067 Operational August 1994 東京電力 - TEPCO Kashiwazaki-Kariwa-5 BWR 1067 Operational April 1990 東京電力 - TEPCO Kashiwazaki-Kariwa-6 ABWR 1315 Operational November 1996 東京電力 - TEPCO Kashiwazaki-Kariwa-7 ABWR 1315 Operational July 1997 東京電力 - TEPCO Mihama-1 Mihama, Fukui PWR 320 Operational November 1970 関西電力 - KEPCO Mihama-2 PWR 470 Operational July 1972 関西電力 - KEPCO Mihama-3 PWR 780 Operational December 1976 関西電力 - KEPCO Monju Tsuruga FBR 320 Non-operational, Reopen in 2008 日本原子力研究開発機構 - JAEA Ōi-1 Ōi, Fukui PWR 1120 Operational March 1979 関西電力 - KEPCO Ōi-2 PWR 1120 Operational December 1979 関西電力 - KEPCO Ōi-3 PWR 1127 Operational December 1991 関西電力 - KEPCO Ōi-4 PWR 1127 Operational February 1993 関西電力 - KEPCO Onagawa-1 Onagawa, Miyagi BWR 498 Operational June 1984 東北電力 - Tōhoku Electric Onagawa-2 BWR 796 Operational July 1995 東北電力 - Tōhoku Electric Onagawa-3 BWR 798 Operational January 2002 東北電力 - Tōhoku Electric Sendai-1 Satsumasendai, Kagoshima PWR 846 Operational July 1984 九州電力 - Kyūshū Electric Sendai-2 PWR 846 Operational November 1985 九州電力 - Kyūshū Electric Shika-1 Shika, Ishikawa BWR 505 Operational July 1993 北陸電力 - RIKUDEN Shika-2 ABWR 1358 Operational March 2006 北陸電力 - RIKUDEN Shimane-1 Kashima, Mitsue,Shimane BWR 439 Operational March 1974 中国電力 - Chūgoku Electric Shimane-2 BWR 789 Operational February 1989 中国電力 - Chūgoku Electric Shimane-3 ABWR 1373 Under construction, online Dec 2011 中国電力 - Chūgoku Electric Takahama-1 Takahama, Fukui PWR 780 Operational November 1974 関西電力 - KEPCO Takahama-2 PWR 780 Operational November 1975 関西電力 - KEPCO Takahama-3 PWR 830 Operational January 1985 関西電力 - KEPCO Takahama-4 PWR 830 Operational June 1985 関西電力 - KEPCO Tokai-1 Tokai, Ibaraki Magnox 169 Operational 1966-1998 日本原子力発電 - JAPC Tokai-2 BWR 1056 Operational November 1978 日本原子力発電 - JAPC Tomari-1 Tomari, Hokkaido PWR 550 Operational June 1989 北海道電力 - HEPCO Tomari-2 PWR 550 Operational April 1991 北海道電力 - HEPCO Tomari-3 PWR 912 Under construction, online Dec 2009 北海道電力 - HEPCO Tsuruga-1 Tsuruga, Fukui BWR 341 Operational March 1970 日本原子力発電 - JAPC Tsuruga-2 PWR 1115 Operational February 1987 日本原子力発電 - JAPC JPDR-II BWR 13 1963–1982 [edit]Research reactors
- Japan Atomic Energy Agency (JAEA) Reactors
- Tokai JRR-1(Japan Research Reactor No.1, shut down)
- Tokai JRR-2 (shut down)
- Tokai JRR-3
- Tokai JRR-4
- Tokai JPDR (Japan Power Demonstration Reactor, shut down)
- Oarai HTTR (High-Temp engineering Test Reactor)
- Oarai JMTR (Japan Materials Testing Reactor)
- Naka JT-60 fusion reactor
- Nuclear Safety Research Reactor
- Fugen (ATR (Advanced Thermal Reactor), shut down)
- Jōyō (FBR)
- Monju (FBR)
- Kinki University
- UTR-KINKl
- Kyoto University
- KUR
- Musashi Institute of Technology(Tokyo City University)
- MITRR(TRIGA-II) (shut down 1990)
- Rikkyo University
- RUR(TRIGA-II) (shut down)
- University of Tokyo
- Yayoi
[edit]Kazakhstan
[edit]Power station reactors
- Aktau (Kazakhstan State Corporation for Atomic Power and Industry)
- BN-350 135 MWe reactor (shut down 1999)
[edit]Research reactors
- Alatau, Institute of Nuclear Physics of the National Nuclear Center
- VVR-K – 10 MWe reactor
- Kurchatov, National Nuclear Center, Semipalatinsk Test Site
- IVG-1M – 60 MW reactor
- RA – zirconium hydride moderated reactor (dismantled)
- IGR (Impulse Graphite Reactor) – 50 MW reactor
[edit]Latvia
- Salaspils, Nuclear Research Center
- 5 MWe research reactor (shut down)
[edit]Libya
[edit]Lithuania
- Ignalina-1, RBMK, shut down on December 31, 2004 per EU demand
- Ignalina-2, RBMK, shut down on December 31, 2009. 1360 MWe.
[edit]Malaysia
- Kuala Lumpur - TRIGA Mark II, Malaysian Institute of Nuclear Technology Research (installed 1982)
[edit]Mexico
- Laguna Verde - 2 BWRs
- Mexico City - TRIGA Mark III, National Institute for Nuclear Research
- Mexico City - National Polytechnic Institute - Subcritical research reactor [7]
- Zacatecas - Autonomous University of Zacatecas - Subcritical research reactor [7]
[edit]Morocco
[edit]Netherlands
[edit]Power station reactors
- Borssele nuclear power plant - 481 MWe PWR
- Dodewaard nuclear power plant - 58 MWe BWR (shut down 1997)
[edit]Research reactors
- Delft, Reactor Institute Delft, part of the Delft University of Technology
- Petten nuclear reactor in Petten
- Biologische Agrarische Reactor Nederland, part of the Wageningen University, shutdown in 1980
- ATHENE nuclear reactor, at the Eindhoven University of Technology, shut down
- Kema Suspensie Test Reactor, test reactor at KEMA, Arnhem, disassembled
[edit]North Korea
For more details on this topic, see Nuclear power in North Korea.[edit]Power station reactors
- Yongbyon
- Yongbyon 2 - 50 MWe Magnox reactor (construction suspended 1994)
- Taechon (20 km from Yongbyon)
- Taechon 1 - 200 MWe reactor (construction suspended 1994)
- Kumho (30 km north of Sinpo), see KEDO
- Kumho 1 - PWR 1000 MWe (construction suspended 2003)
- Kumho 2 - PWR 1000 MWe (construction suspended 2003)
[edit]Research and production reactors
- Yongbyon
- IRT-2000 - 8 MWt (2MWt 1965-1974, 4MWt 1974-1986) heavy-water moderated research reactor (supplied by USSR, 1965)
- Yongbyon 1 - 5 MWe Magnox reactor, provides power and district heating (active 1987-1994, reactivated 2003, and shut-down in July 2007)
[edit]Norway
[edit]Research reactors
- Kjeller reactors
- NORA (activated 1961, shut down 1967)
- JEEP I (activated 1951, shut down 1967)
- JEEP II (activated 1966)
- Halden reactor
- HBWR - Halden boiling water reactor (activated 1959)
[edit]Pakistan
See also: Nuclear power in Pakistan[edit]Power station reactors
Reactor Type MWe net Location Status CHASNUPP-1 PWR 300 Chashma Operational since 2000 CHASNUPP-2 PWR 300 Chashma Under construction. Expected 2011. CHASNUPP-3 PWR 650[citation needed] Chashma Approved. To be constructed by China. CHASNUPP-4 PWR 650[citation needed] Chashma Approved. To be constructed by China KANUPP-1 PHWR 125 Karachi Operational since 1966 KANUPP-2 PWR 1000 Karachi Approved. Preliminary work started but then the project was put on hold in 2009.[8] KANUPP-3 PWR 1000 Karachi Proposed [edit]Research and production reactors
Under IAEA safeguards
Reactor Type MWT Location Status PARR I Pool-type reactor 10 Islamabad Operational since 1965 PARR II Pool-type reactor 30 kWT Islamabad Operational since 1974 Not under IAEA safeguards
Reactor Type MWT Location Status Khushab-I HWR Classified. Estimated: 50-70 Khushab Operational since 1998 Khushab-II HWR Classified Khushab Operational since 2010 Khushab-III HWR Classified Khushab Under construction [edit]Panama
- USS Sturgis - floating nuclear power plant for Panama Canal (operating 1966 to 1976)
[edit]Peru
- RP-0 - Located in Lima, built by Argentine INVAP
- RP-10 - Located in Huarangal built by Argentine INVAP
[edit]Philippines
- PRR-1 - 3 MW TRIGA-converted reactor, Quezon City. Managed by the Philippine Nuclear Research Institute (formerly Philippine Atomic Energy Commission). 1st criticality on August 1963, reactor conversion on March 1984, criticality after conversion on April 1988, shutdown since 1988 for pool repairs, on extended shutdown at present.
- Bataan Nuclear Power Plant - 620 MWe, mothballed
[edit]Poland
- Ewa reactor - 10 MW research reactor (dismantled in 1995)
- Maria reactor - 30 MW research reactor
- Żarnowiec Nuclear Power Plant - 1600 MW construction cancelled
[edit]Portugal
- Sacavem - RPI, Portuguese Research Reactor - 1 MWt pool type, Instituto Tecnológico e Nuclear
[edit]Puerto Rico
- Mayagüez - TRIGA reactor (dismantled)
- Boiling Nuclear Superheater (BONUS) Reactor Facility, BONUS - superheated BWR (decommissioned). Listed on the U.S. National Register of Historic Places.
[edit]Romania
[edit]Power stations
[edit]Fuel Factory
- Mioveni Fuel Factory, CANDU fuel
- Turnu Severin-Halînga Heavy Water Factory
[edit]Research
- Institute for Nuclear Research, Mioveni, 110 km north-west of Bucharest
- National Institute for Research and Isotopic Separation, Govora, 170 km west of Bucharest
- National Institute for Physics and Nuclear Engineering, IFIN-HH, Mǎgurele, 5 km south-west of Bucharest
[edit]Russia
Main article: Nuclear power in Russia[edit]Power station reactors
Name Unit Reactortype Status Net
capacity
(MW)Gross
capacity
(MW)Electricity
Grid
(planned)Shutdown
(planned)Balakovo 1 VVER-1000/320 Operating 950 1.000 28.12.1985 (2015) Balakovo 2 VVER-1000/320 Operating 950 1.000 08.10.1987 (2017) Balakovo 3 VVER-1000/320 Operating 950 1.000 25.12.1988 (2018) Balakovo 4 VVER-1000/320 Operating 950 1.000 11.04.1993 (2023) Beloyarsk 1 AMB-100 Shutdown 102 108 26.04.1964 01.01.1983 Beloyarsk 2 AMB-200 Shutdown 146 160 29.12.1967 01.01.1990 Beloyarsk (BN-600) 3 BN-600 (Fast breeder) Operating 560 600 08.04.1980 (2025) Beloyarsk (BN-800) 4 BN-800 (Fast breeder) Under Constructionsince 2006 750 800 (2012) – Bilibino 1 GBWR-12/EGP-6 Operating 11 12 12.01.1974 (2019) Bilibino 2 GBWR-12/EGP-6 Operating 11 12 30.12.1974 (2019) Bilibino 3 GBWR-12/EGP-6 Operating 11 12 22.12.1975 (2021) Bilibino 4 GBWR-12/EGP-6 Operating 11 12 27.12.1976 (2022) Kalinin 1 VVER-1000/338 Operating 950 1.000 09.05.1984 (2014) Kalinin 2 VVER-1000/338 Operating 950 1.000 03.12.1986 (2016) Kalinin 3 VVER-1000/320 Operating 950 1.000 16.12.2004 (2034) Kalinin 4 VVER-1000/320 Under Constructionsince 1986 950 1.000 (31.12.2010) – Kola 1 VVER-440/230 Operating 411 440 29.06.1973 (2018) Kola 2 VVER-440/230 Operating 411 440 09.12.1974 (2019) Kola 3 VVER-440/213 Operating 411 440 24.03.1981 (2036) Kola 4 VVER-440/213 Operating 411 440 11.10.1984 (2014) Kursk 1 RBMK-1000 (1. Gen.) Operating 925 1.000 19.12.1976 (2021) Kursk 2 RBMK-1000 (1. Gen.) Operating 925 1.000 28.01.1979 (2024) Kursk 3 RBMK-1000 (2. Gen.) Operating 925 1.000 17.10.1983 (2033) Kursk 4 RBMK-1000 (2. Gen.) Operating 925 1.000 02.12.1985 (2035) Kursk 5 RBMK-1000 (3. Gen.) Under Constructionsince 1985 925 1.000 (31.12.2010) – Novovoronezh 1 VVER-210 [9] Shutdown 197 210 30.09.1964 16.02.1988 Novovoronezh 2 VVER-365 [10] Shutdown 336 365 27.12.1969 29.08.1990 Novovoronezh 3 VVER-440/179 Operating 385 417 27.12.1971 (2016) Novovoronezh 4 VVER-440/179 Operating 385 417 28.12.1972 (2017) Novovoronezh 5 VVER-1000/187 Operating 950 1.000 31.05.1980 (2030) Novovoronezh II 1 VVER-1200/491 (AES-2006) Under Constructionsince 2008 1,085 1,170 (31.12.2012) – Obninsk (APS-1) 1 AM-1 Shutdown 5 6 26.06.1954 29.04.2002 Sewerodwinsk 1 KLT-40S Under Constructionsince 2007 30 38 (2010) – Sewerodwinsk 2 KLT-40S Under Constructionsince 2007 30 38 (2010) – Smolensk 1 RBMK-1000 (2. Gen.) Operating 925 1.000 09.12.1982 (2033) Smolensk 2 RBMK-1000 (2. Gen.) Operating 925 1.000 31.05.1985 (2035) Smolensk 3 RBMK-1000 (3. Gen.) Operating 925 1.000 17.01.1990 (2040) Leningrad (Sosnovy Bor) 1 RBMK-1000 (1. Gen.) Operating 925 1.000 21.12.1973 (2018) Leningrad (Sosnovy Bor) 2 RBMK-1000 (1. Gen.) Operating 925 1.000 11.07.1975 (2020) Leningrad (Sosnovy Bor) 3 RBMK-1000 (1. Gen.) Operating 925 1.000 07.12.1979 (2029) Leningrad (Sosnovy Bor) 4 RBMK-1000 (1. Gen.) Operating 925 1.000 09.02.1981 (2031) Leningrad II 1 VVER-1160 or VVER-1200/491 Planned start 10/2007[11] 1,085 1,170 (2012) – VK-50[12] 1 VK-50 Shutdown 50 62 01.01.1966 01.01.1989 Volgodonsk (Rostov) 1 VVER-1000/320 Operating 950 1.000 30.03.2001 (2030) Volgodonsk (Rostov) 2 VVER-1000/320 Operating 950 1.000 (31.12.2008) – [edit]Research reactors
(There are approximately 109 research reactors in Russia. [11] )
- T-15 fusion reactor at Kurchatov Institute
[edit]Serbia
[edit]Research reactors
- Vinca Nuclear Institute, Vinča
- RA - Reaktor A (1956–2002) - 6.5 MW heavy water moderated and cooled research reactor
- RB - Reaktor B (1958-...) - At the very beginning the RB reactor was designed and constructed as an unreflected zero power heavy water - natural uranium critical assembly. First criticality was reached in April 1958. Later, the 2% enriched metal uranium fuel and 80% enriched UO2 fuel were obtained and used in the reactor core. Modifications of the reactor control, safety and dosimetry systems (1960, 1976, 1988) converted the RB critical assembly to a flexible heavy water reflected experimental reactor with 1 W nominal power, operable up to 50 W. Several coupled fast-thermal systems were designed and constructed at RB reactor in the early 1990s, for the research in fast reactors physics.
(For more information on the subject, please visit [12])
[edit]Slovakia
- Bohunice - 4 408 MWe WWER (aka VVER),
- Mochovce - 2 388 MWe WWER
- 2x WWER-440/V213
- 2x WWER-440/V213 (under construction; likely to be finished by Enel)
[edit]Slovenia
- Krško NPP - 670 MWe PWR (with Croatia 50% ownership)
- Ljubljana - TRIGA Mark II research reactor, Jožef Stefan Institute (supplied in 1966 by the U.S.)
[edit]South Africa
[edit]Power station reactors
- Koeberg nuclear power station (near Cape Town) 33°40′35.2″S 18°25′55.37″E
- Koeberg-1 920MWe
- Koeberg-2 920MWe
[edit]Research reactors
[edit]South Korea
- For a list of nuclear reactors in South Korea please see: Nuclear power in South Korea
Breakdown by site Plant Town Province Primary Technology Current Capacity Planned Capacity Kori Gijang Busan PWR 3035 7635 Ulchin Uljin Gyeongbuk PWR 5680 8380 Wolsong Gyeongju Gyeongbuk PHWR 2579 4479 Yeonggwang Yeonggwang Jeonnam PWR 5900 0 Breakdown by Reactor Reactor Type Rating, MWe Start of Operations Kori-1 PWR 563 1978 Kori-2 PWR 612 1983 Kori-3 PWR 950 1985 Kori-4 PWR 950 1986 Ulchin-1 PWR 950 1988 Ulchin-2 PWR 950 1989 Ulchin-3 KSNP 1000 1998 Ulchin-4 KSNP 1000 1999 Ulchin-5 KSNP 1000 2004 Ulchin-6 KSNP 1000 2005 Wolsong-1 CANDU 629 1983 Wolsong-2 CANDU 650 1997 Wolsong-3 CANDU 650 1998 Wolsong-4 CANDU 650 1999 Yeonggwang-1 PWR 950 1986 Yeonggwang-2 PWR 950 1987 Yeonggwang-3 System 80 1000 1995 Yeonggwang-4 System 80 1000 1996 Yeonggwang-5 KSNP 1000 2002 Yeonggwang-6 KSNP 1000 2002 Shin Kori 1 OPR-1000 1000 2010 (Under construction) Shin Kori 2 OPR-1000 1000 2010 (Under construction) Shin Wolsong 1 OPR-1000 1000 2011 (Under construction) Shin Wolsong 2 OPR-1000 1000 2012 (Under construction) Shin Kori 3 APR-1400 1400 2013 (Under construction) Shin Kori 4 APR-1400 1400 2014 (Under construction) Shin Ulchin 1 APR-1400 1400 2015 (Planned) Shin Ulchin 2 APR-1400 1400 2016 (Planned) Research Reactors:
- Aerojet General Nucleonics Model 201 Research Reactor
- HANARO, MAPLE class reactor
- TRIGA General Atomics Mark II (TRIGA-Mark II) Research Reactor
[edit]Spain
Main article: Nuclear power in Spain[edit]Power station reactors
- Almaraz Nuclear Power Plant
- Almaraz-1 - 1032 MWe-PWR
- Almaraz-2 - 1027 MWe-PWR
- Ascó Nuclear Power Plant
- Ascó-1 - 930 MWe-PWR
- Ascó-2 - 930 MWe-PWR
- Central nuclear José Cabrera (Zorita) (shut down 04-30-2006) 160MWe-PWR
- Cofrentes Nuclear Power Plant - 994 MWe-BWR
- Santa María de Garoña Nuclear Power Plant - 460 MWe-BWR
- Trillo Nuclear Power Plant - 1.066 MWe-PWR
- Vandellòs Nuclear Power Plant Tarragona
[edit]Research reactors
- Argos 10 kW Argonaut reactor - Polytechnic University of Catalonia, Barcelona (shut down 1992)
- CORAL-I reactor
[edit]Sweden
Main article: Nuclear power in Sweden[edit]Power Station Reactors
Name Type Effect Operational Current status Manufacturer Barsebäck 1 BWR 630 MW 1975–1999 shut down ASEA-Atom Barsebäck 2 BWR 630 MW 1977–2005 shut down ASEA-Atom Forsmark 1 BWR 1,018 MW 1980– operational ASEA-Atom Forsmark 2 BWR 960 MW 1981– operational ASEA-Atom Forsmark 3 BWR 1,230 MW 1985– operational ASEA-Atom Oskarshamn 1 BWR 500 MW 1972– operational ASEA-Atom Oskarshamn 2 BWR 630 MW 1975– operational ASEA-Atom Oskarshamn 3 BWR 1,200 MW 1985– operational ASEA-Atom Ringhals 1 BWR 860 MW 1976– operational ASEA-Atom Ringhals 2 PWR 870 MW 1975– operational Westinghouse Electric Company Ringhals 3 PWR 920 MW 1981– operational Westinghouse Electric Company Ringhals 4 PWR 910 MW 1983– operational Westinghouse Electric Company [edit]Research reactors
Name Location Description Power Operational Current status R1 KTH,Stockholm Research 1 MW 1954–1970 dismantled R2 Studsvik Research, production of isotopes for industry 50 MW 1960–2005 shut down R2-0 Studsvik Research, production of isotopes for industry 1 MW 1960–2005 shut down Ågestaverket(R3) Farsta,Stockholm District heating 80 MW 1963–1973 shut down Marviken (R4) Marviken,Norrköping Research, plutonium production — never completed abandoned in 1970 FR-0 Studsvik Research, zero-power fast reactor low 1964–1971 dismantled [edit]Switzerland
See also: Nuclear power in Switzerland[edit]Power station reactors
- Beznau Nuclear Power Plant - 2 identical PWR power reactors. Commissioned in 1969 and 1970. (Aerial view)
- Goesgen Nuclear Power Plant - PWR power reactor, commissioned 1979. (Aerial view)
- Leibstadt Nuclear Power Plant - BWR power reactor, commissioned 1984. (Aerial view)
- Mühleberg Nuclear Power Plant - BWR power reactor, commissioned 1970. (Aerial view)
[edit]Research reactors
- SAPHIR - Pool reactor. First criticality: April 30, 1957. Shut down: End of 1993. Paul Scherrer Institut
- DIORIT - HW cooled and moderatred. First criticality: April 15, 1960. Shut down: 1977. Paul Scherrer Institut
- Proteus - Null-power reconfigurable reactor (graphite moderator/reflector). In operation. Paul Scherrer Institut
- Lucens - Prototype power reactor (GCHWR) 30 MWth/6 MWe. Shut down in 1969 after accident. Site decommissioned.
- CROCUS - Null-power light water reactor. In operation. École polytechnique fédérale de Lausanne
[edit]Syria
[edit]Taiwan
Main article: Nuclear power in Taiwan[edit]Power station reactors
Name Location Type Rating, MWe net Status Chin Shan Nuclear Power Plant Chin Shan BWR 604 1978- BWR 604 1979- Kuosheng Nuclear Power Plant Kuosheng BWR 948 1981- BWR 948 1983- Maanshan Nuclear Power Plant Maanshan PWR 890 1984- PWR 890 1985- Lungmen Nuclear Power Plant Lungmen ABWR 1350 Under construction ABWR 1350 Under construction [edit]Research reactors
[edit]Thailand
- Bangkok - TRIGA, Office of Atoms for Peace (installed 1977)
- Bangkok - TRIGA MPR 10, Ongkharak Nuclear Research Center (under construction)
[edit]Turkey
Location Status Reactor Type MWe net Construction Start Commercial Operation Mersin Proposed - VVER pressurized water reactors 4800 - - Sinop Proposed - - 1800 - - [edit]Research reactors
- TR-1 Research Reactor (Turkish Atomic Energy Authority) Reactor's Web Site: www.tr-2.org
- TR-2 Research Reactor (Turkish Atomic Energy Authority) Reactor's Web Site: www.tr-2.org
- TRIGA MARK II Research Reactor (Istanbul Technical University) Institute of Energy
[edit]Fuel pilot plants
- TRD Fuel Pilot Plant (Turkish Atomic Energy Authority)
[edit]Ukraine
[edit]Power station reactors
- V.I. Lenin Memorial Chernobyl Nuclear Power Station
- Chernobyl-1 RBMK-1000 LWGR (shut down 1996)
- Chernobyl-2 RBMK-1000 LWGR (shut down 1991)
- Chernobyl-3 RBMK-1000 LWGR (shut down 2000)
- Chernobyl-4 RBMK-1000 LWGR (exploded in Chernobyl disaster 1986)
- Khmelnytskyi Nuclear Power Plant - 2 WWER-1000 reactors
- Rivne Nuclear Power Plant - 2 WWER-440 and 2 WWER-1000 reactors
- South Ukraine Nuclear Power Plant, Kostiantynivka, Mykolaiv Oblast - 3 WWER-1000 reactors
- Zaporizhzhia Nuclear Power Plant - 6 WWER-1000 reactors (Europe's largest nuclear power plant)
[edit]Research reactors
- Kiev Institute for Nuclear Research
- Sevastopol Institute of Nuclear Energy and Industry
[edit]United Kingdom
Main article: Nuclear power in the United Kingdom[edit]Power station reactors
- Berkeley, Gloucestershire 2 x 276MW, de-commissioned
- Bradwell, Essex (Generation ceased in 2002, defuelled by September 2005)
- Calder Hall, Sellafield, Cumbria - 4 x 50MWe (Generation started in 1956 and ceased in 2003)
- Chapelcross, Dumfries and Galloway - 4 x 180MW(th) (Generation ceased in June 2004)
- Dungeness A, Kent 2 x 223MW. BNG owned Magnox station (Entered decommissioning January 2007)
- Dungeness B, Kent 2 x 550 MW(e). British Energy owned AGR
- Hartlepool, Hartlepool 2 x 600MW(e). British Energy owned AGR
- Heysham nuclear power stations, Lancashire - 4 x 600 MW(e)
- Hinkley Point A, Somerset (Ceased operations in 2000, defuelled by September 2005)
- Hinkley Point B, Somerset 2 x 570MW(e). British Energy owned AGR
- Hunterston A, North Ayrshire (Generation ceased 1990)
- Hunterston B, North Ayrshire 2 x 570 MW(e) British Energy owned AGR
- Oldbury, Gloucestershire - 2 x 435MW. (Generation due to cease July 2011 or when Cumulative Mean Core Irradiaton reaches 31.5 MWd/te (R1) and 32.7 MWd/te (R2))
- Sizewell A, Suffolk BNFL owned Magnox station (Entered decommissioning January 2007)
- Sizewell B, Suffolk 1 x 1195MWe. British Energy PWR
- Torness, East Lothian 2 x 625 MW(e). British Energy owned AGR
- Trawsfynydd, Gwynedd BNG owned Magnox station (Generation ceased 1991)
- Winfrith, Dorchester, Dorset – SGHWR (ceased operation in 1990)
- Wylfa, Anglesey - 2 x 490MW magnox reactors. (Generation due to cease at end of 2010)
[edit]Research reactors
- Aldermaston - VIPER - Atomic Weapons Establishment
- Ascot - CONSORT reactor, Imperial College London, Silwood Park campus
- Billingham - TRIGA Mark I reactor, ICI refinery (installed 1971, shut down 1988)
- Culham - JET fusion reactor
- Derby - Neptune - Rolls-Royce Marine Power Operations Ltd, Raynesway
- Dounreay
- The Shore Test Facility (STF) at VULCAN (Rolls-Royce Naval Marine)
- DSMP1 at VULCAN (Rolls-Royce Naval Marine)(shut down 1984)
- DMTR
- Dounreay Fast Reactor - Fast breeder reactor (shut down 1994)
- Prototype fast reactor
- East Kilbride - Scottish Universities Research and Reactor Centre (deactivated 1995, fully dismantled 2003)
- Harwell AERE
- London
- Greenwich - JASON PWR reactor (dismantled 1999)
- Stratford Marsh - Queen Mary, University of London (commissioned 1966, deactivated 1982, (fully dismantled))
- Risley - Universities Research Reactor (shut down 1991 decommissioned-land released 1996)
- Sellafield (named Windscale until 1971)
- PILE 1 (shut down 1957 after Windscale fire)
- PILE 2 (shut down 1957)
- WAGR (shut down 1982)
- Winfrith - Dorchester, Dorset, 9 reactors, shut down 1990, including
[edit]United States of America
Main article: Nuclear power in the United States[edit]Power station reactors
[edit]NRC Region One (Northeast)
- Beaver Valley, Pennsylvania
- Calvert Cliffs, Maryland
- Connecticut Yankee, Connecticut (Decommissioned)
- FitzPatrick, New York
- Ginna, New York
- Hope Creek, New Jersey
- Indian Point, New York
- Limerick, Pennsylvania
- Maine Yankee, Maine (Decommissioned)
- Millstone, Connecticut
- Nine Mile Point, New York
- Oyster Creek, New Jersey
- Peach Bottom, Pennsylvania
- Pilgrim, Massachusetts
- Salem, New Jersey
- Saxton, Pennsylvania (Decommissioned)
- Seabrook, New Hampshire
- Shippingport, Pennsylvania (Decommissioned)
- Shoreham, New York (Decommissioned)
- Susquehanna, Pennsylvania
- Three Mile Island, Pennsylvania
- Penn State University Research Reactor, University Park, Pennsylvania
- Vermont Yankee, Vermont
- Yankee Rowe, Massachusetts (Decommissioned)
[edit]NRC Region Two (South)
- Bellefonte, Alabama (Unfinished)
- Browns Ferry, Alabama
- Brunswick, North Carolina
- Carolinas-Virginia Tube Reactor, South Carolina (decommissioned)
- Catawba, South Carolina
- Crystal River 3, Florida
- Farley (Joseph M. Farley), Alabama
- Grand Gulf Nuclear Generating Station, Mississippi
- Hatch (Edwin I. Hatch), Georgia
- McGuire, North Carolina
- North Anna, Virginia
- Oconee, South Carolina
- H.B. Robinson, South Carolina
- Sequoyah, Tennessee
- Shearon Harris, North Carolina
- St. Lucie, Florida
- Virgil C. Summer, South Carolina
- Surry, Virginia
- Turkey Point, Florida
- Alvin W. Vogtle, Georgia
- Watts Bar, Tennessee
[edit]NRC Region Three (Midwest)
- Big Rock Point, Michigan (Decommissioned)
- Byron, Illinois
- Braidwood, Illinois
- Clinton, Illinois
- Davis-Besse, Ohio
- Donald C. Cook, Michigan
- Dresden, Illinois
- Duane Arnold, Iowa
- Elk River, Minnesota (Decommissioned)
- Enrico Fermi, Michigan
- Kewaunee, Wisconsin
- La Crosse, Wisconsin (Decommissioned)
- LaSalle County, Illinois
- Marble Hill, Indiana (Unfinished)
- Monticello, Minnesota
- Palisades, Michigan
- Perry, Ohio
- Piqua, Ohio (Decommissioned)
- Point Beach, Wisconsin
- Prairie Island, Minnesota
- Quad Cities, Illinois
- Zion, Illinois (Decommissioned)
[edit]NRC Region Four (West)
- Arkansas Nuclear One, Arkansas
- Callaway, Missouri
- Columbia, Washington - formerly WNP-2
- Comanche Peak, Texas
- Cooper, Nebraska
- Diablo Canyon, California
- Fort Calhoun, Nebraska
- Fort Saint Vrain, Colorado (Decommissioned)
- Grand Gulf, Mississippi
- Hallam, Nebraska (Decommissioned)
- Hanford N Reactor, Washington (Retired - see Plutonium Production Reactors below)
- Humboldt Bay, California (Decommissioned)
- Palo Verde, Arizona
- Pathfinder, South Dakota (Decommissioned)
- Rancho Seco, California (Decommissioned)
- River Bend, Louisiana
- San Onofre, California
- Sodium Reactor Experiment, Santa Susana Field Laboratory, California (Accident 1959, Closed 1964)
- South Texas Project Electric Generating Station, Texas
- Trojan, Rainier, Oregon (Decommissioned)
- MSTR, Missouri
- Vallecitos, California (idle research center)
- Waterford, Louisiana
- Wolf Creek, Kansas
[edit]Plutonium production reactors
- Hanford Site, Washington
- B-Reactor (Pile) - Preserved as a Museum
- F-Reactor (Pile) - Cocooned
- D-Reactor (Pile) - Cocooned
- H-Reactor (Pile) - Being Cocooned
- DR-Reactor (Pile) - Cocooned
- C-Reactor (Pile) - Cocooned
- KE-Reactor (Pile) - Being Cocooned
- KW-Reactor (Pile) - Being Cocooned
- N-Reactor - Being Cocooned
- Savannah River Site, South Carolina
- R-Reactor (Heavy Water) - S&M (Surveillance and Maintenance) Mode
- P-Reactor (Heavy Water) - S&M Mode
- L-Reactor (Heavy Water) - S&M Mode
- K-Reactor (Heavy Water) - S&M Mode
- C-Reactor (Heavy Water) - S&M Mode
[edit]Army Nuclear Power Program
Main article: Army Nuclear Power Program[edit]
Knolls Atomic Power Laboratory Prototype S6W Reactor, Ballston Spa, New York
Main article: List of United States Naval reactors[edit]Research reactors
- Arkansas-Southwest Experimental Fast Oxide Reactor, Arkansas
- SEFOR - Shut Down
- Argonne National Laboratory, Illinois (and Idaho)
- CP-1 - Chicago Pile 1 (Relocated and renamed as Chicago Pile 2 in 1943) - Shut Down
- CP-3 - Chicago Pile 3 - Shut Down
- CP-5 - Chicago Pile 5 - Shut Down (1979)
- EBWR - Experimental Boiling Water Reactor - Shut Down
- LMFBR - Liquid Metal Fast Breeder Reactor - Shut Down
- Janus reactor - Shut Down (1992)
- JUGGERNAUT - Shut Down
- IFR - Integral Fast Reactor - Never Operated[citation needed]
- Brookhaven National Laboratory, Upton, New York
- High Flux Beam Reactor - Shut Down (1999)
- Medical Research Reactor - Shut Down (2000)
- Brookhaven Graphite Research Reactor - Shut Down (1968)
- Hanford Site, Washington
- Fast Flux Test Facility -
currently in cold standbyCore drilled
- Fast Flux Test Facility -
- Idaho National Laboratory, Idaho
- ARMF-I - Shut Down
- AMRF-II - Shut Down
- ATR - Operating
- ATRC - Operating
- AFSR - Shut Down
- BORAX-I - Shut Down
- BORAX-II - Shut Down
- BORAX-III - Shut Down
- BORAX-IV - Shut Down
- BORAX-V - Shut Down (1964)
- CRCE - Shut Down
- CFRMF - Shut Down
- CET - Shut Down
- Experimental Test Reactor - Shut Down
- ETRC - Shut Down
- EBOR - Never Operated
- EBR-I - Experimental Breeder Reactor I (originally CP-4) - Shut Down
- EBR-II - Experimental Breeder Reactor II - Shut Down
- ECOR - Never Operated
- 710 - Shut Down
- GCRE - Gas Cooled Reactor Experiment - Shut Down
- HTRE-1 - Heat Transfer Reactor Experiment 1 - Shut Down
- HTRE-2 - Heat Transfer Reactor Experiment 2 - Shut Down
- HTRE-3 - Heat Transfer Reactor Experiment 3 - Shut Down
- 603-A - Shut Down
- HOTCE - Shut Down
- A1W-A - Shut Down
- A1W-B - Shut Down
- LOFT - Shut Down
- MTR - Shut Down
- ML-1 - Mobil Low Power Plant - Shut Down
- S5G - Shut Down
- NRAD - Operating
- FRAN - Shut Down
- OMRE - Shut Down
- PBF - Shut Down
- RMF - Shut Down
- SUSIE - Operational
- SPERT-I - Shut Down
- SPERT-II - Shut Down
- SPERT-III - Shut Down
- SPERT-IV - Shut Down
- SCRCE - Shut Down
- SL-1/ALPR - Stationary Low Power Plant - Shut Down
- S1W/STR - Shut Down
- SNAPTRAN-1 - Shut Down
- SNAPTRAN-2 - Shut Down
- SNAPTRAN-3 - Shut Down
- THRITS - Shut Down
- TREAT - Shut Down
- ZPPR - Zero Power Physics Reactor (formerly Zero Power Plutonium Reactor) - Standby
- ZPR-III - Shut Down
- Los Alamos National Laboratory, New Mexico
- UHTREX - Shut Down
- Omega West - Shut Down
- Clementine - Shut Down
- Nevada Test Site, Nevada
- Oak Ridge National Laboratory, Tennessee
- X-10 Graphite Reactor - Shut Down
- Aircraft Reactor Experiment
- Oak Ridge Research Reactor - Shut Down
- Bulk Shielding Reactor - Shut Down
- Tower Shielding Reactor - Shut Down
- Molten-Salt Reactor Experiment - Shut Down
- High Flux Isotope Reactor - Operational
- Savannah River Site, South Carolina
- HWCTR - Heavy Water Components Test Reactor - Partial Decommissioning
- Santa Susana Field Laboratory, Simi Hills California
- Sodium Reactor Experiment (Accident 1959, Closed 1964)
- SNAP-10A (Shut Down 1965, presently orbiting)
[edit]Civilian Research and Test Reactors Licensed To Operate
Operator Location Reactor Power Operational Aerotest Operations Inc. San Ramon, California TRIGA Mark I 250 kW Armed Forces Radiobiology Research Institute Bethesda, Maryland TRIGA Mark F 1 MW Dow Chemical Company Midland, Michigan TRIGA Mark I 300 kW General Electric Company Sunol, California "Nuclear Test" 100 kW Idaho State University Pocatello, Idaho AGN-201 #103 50 W 1967 Kansas State University Manhattan, Kansas TRIGA Mark II 1250 kW 1962 Massachusetts Institute of Technology Cambridge, Massachusetts Tank Type HWR Reflected (MITR-II) 6 MW 1958 - Missouri University of Science and Technology Rolla, Missouri Pool 200 kW 1961 - National Institute of Standards and Technology Gaithersburg, Maryland Tank Type, Heavy Water Moderated 20 MW 1967 - North Carolina State University Raleigh, North Carolina Pulstar 1 MW 1973 - Ohio State University Columbus, Ohio Pool (modified Lockheed) [13] 500 kW 1961 Oregon State University Corvallis, Oregon TRIGA Mark II (OSTR) 1.1 MW 1967 - Penn State University University Park, Pennsylvania TRIGA BNR Reactor 1.1 MW 1955 - Purdue University West Lafayette, Indiana Lockheed 1 kW 1962 Reed College Portland, Oregon TRIGA Mark I (RRR) 250 kW 1968 - Rensselaer Polytechnic Institute Troy, New York Critical Assembly Rhode Island Atomic Energy Commission/University of Rhode Island Narragansett, Rhode Island GE Pool 2 MW Texas A&M University College Station, TX AGN-201M #106 - TRIGA Mark I (two reactors) 5 W, 1 MW University of Arizona Tucson, AZ TRIGA Mark I 110 kW 1958 University of California-Davis Sacramento, California TRIGA Mark II, McClellan Nuclear Radiation Center 2.3 MW August 13, 1998 - University of California, Irvine Irvine, California TRIGA Mark I 250 kW 1969 University of Florida Gainesville, Florida Argonaut (UFTR) 100 kW 1959 - University of Maryland, College Park College Park, Maryland TRIGA Mark I 250 kW 1960 - University of Massachusetts Lowell Lowell, Massachusetts Pool 1 MW University of Missouri Columbia, Missouri General Electric tank type UMRR 10 MW 1966 - University of New Mexico Albuquerque, New Mexico AGN-201M $112 University of Texas at Austin Austin, Texas TRIGA Mark II 1.1 MW University of Utah Salt Lake City, Utah TRIGA Mark I 100 kW University of Wisconsin–Madison Madison, Wisconsin TRIGA Mark I 1 MW 1961 U.S. Geological Survey Denver, Colorado TRIGA Mark I 1 MW U.S. Veterans Administration Omaha, Nebraska TRIGA Mark I 20 kW Washington State University Pullman, Washington TRIGA Conversion (WSUR) 1 MW March 9, 1961 - [edit]Under Decommission Orders or License Amendments
(These research and test reactors are authorized to decontaminate and dismantle their facility to prepare for final survey and license termination.)
- General Atomics, San Diego, California (two reactors)
- National Aeronautics and Space Administration, Sandusky, Ohio (two reactors)
- University of Illinois at Urbana-Champaign, Urbana, Illinois
- University of Michigan, Ann Arbor, Michigan
[edit]With Possession-Only Licenses
(These research and test reactors are not authorized to operate the reactor, only to possess the nuclear material on-hand. They are permanently shut down.)
- General Electric Company, Sunol, California (two research and test reactors, one power reactor)
- Nuclear Ship Savannah, James River Reserve Fleet, Virginia (one power reactor)
- University at Buffalo
- U.S. Veterans Administration, Omaha, NE
- Worcester Polytechnic Institute, Worcester, MA
[edit]External links
[edit]Uruguay
- URR reactor
[edit]Uzbekistan
[edit]Venezuela
- RV-1 pool-type reactor (shut down 1994)
[edit]Vietnam
Name Unit Reactortype Status Net
capacity
(MW)Gross
capacity
(MW)Electricity
Grid
(planned)Shutdown
(planned)Phuoc Dinh (Ninh Thuan)[14] 1 VVER-1000/392 Planned 1.000 - - - Phuoc Dinh (Ninh Thuan)[15] 2 VVER-1000/392 Planned 1.000 - - - [edit]See also
- Economics of new nuclear power plants
- Energy development
- List of nuclear power stations - another list by station
- List of power stations in Europe
- Lists of nuclear disasters and radioactive incidents
- List of small nuclear reactor designs
- Nereus (Nuclear Reactor)
- Nuclear power
- Nuclear power by country
- William H. Zimmer Power Station
- Integrated Nuclear Fuel Cycle Information System
[edit]References
- ^ [1]
- ^ Estamos desarrollando el prototipo del Carem en Atucha
- ^ HIFAR
- ^ OPAL
- ^ Yong, William; Kramer, Andrew E. (21 August 2010). "Iran Opens Its First Nuclear Power Plant". The New York Times. Retrieved 21 August 2010.
- ^ [2]
- ^ a b [3] - El financiero en línea - "Factible construir centrales nucleares de electricidad en México" (6/2/2006) "A la fecha, México cuenta con cuatro instalaciones nucleares en operación. La central de electricidad nuclear Laguna Verde (CNLV) que opera la CFE y el reactor TRIGA MARK-III en instalaciones del Instituto Nacional de Investigaciones Nucleares. Asimismo, tiene dos ensambles subcríticos en la Universidad Autónoma de Zacatecas y en el Instituto Politécnico Nacional (IPN), que funcionan con fines de investigación."
- ^ Asad Hashim (2009-01-31). "Plan to establish 1,000MW Kanupp-II put on hold". DAWN Media Group. Retrieved 2010-07-04.
- ^ VVER-210 by Rosenergoatom (russ)
- ^ VVER-365 by Rosenergoatom (russ)
- ^ Leningrad II 1 on the PRIS of the IAEA
- ^ VK-50 on the PRIS of the IAEA
- ^ http://www.tasr.sk/30.axd?k=20090110TBB00423
- ^ Power Reactor Information System of the IAEA: „Nuclear Power Reactor Details - PHUOC DINH 1"
- ^ Power Reactor Information System of the IAEA: „Nuclear Power Reactor Details - PHUOC DINH 2"
[edit]External links
Reactor lists:
- IAEA list as of 2006 (1.5 MB)
- ICJT lists of Nuclear Power Plants worldwide
- NED Database of Commercial Nuclear Power Reactors
- Clickable map of US nuclear power reactors
- Interactive map with all nuclear power plants US and worldwide (Note: missing many plants)
- US DoE commercial nuclear reactors page
- List of Canadian nuclear power stations on the ICJT site
- Link collection to Nuclear Power Plants
- British Nuclear Group portfolio of Nuclear Sites
- US University Research Reactors - A Brief Overview
Reactor news items:
Other:
- Status of Closed US Plants (This Web link is not working as of 10/14/08))
- IAEA Intergarated Nuclear Fuel Cycle Information System - (Free registration required)
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