Nuclear energy by state

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Nuclear power plants can be built practically anywhere on the planet, unlike hydro, wind, solar, wave, tide, geothermal etc which require appropriate geological and meteorological conditions. However their development around the world has been very different due to local political and economic conditions. Factors such as the power of fossil fuel and other anti-nuclear forces, and whether power plants are built by the state or private enterprise tend to be significant factors, alongside the wealth of the state and whether it is a signatory to the Nuclear Non-Proliferation Treaty.


"Nuclear Power as a Solution to Climate Change: Why the Public Discussion is Such a Mess" Karen Street

Can our need for a carbon-free future override our fears of nuclear energy? Debbie Carlson; The Guardian; 12 Sep 2016

Unlike coal and natural gas plants that emit carbon emissions while producing electricity, nuclear generates none. So why aren’t more states getting onboard?

Tritium Radioactive leaks found at 75% of US nuke sites

Indian Point

Indian Point nuclear plant called "disaster waiting to happen" CBS News

New York's Indian Point Nuclear Power Plant Is Leaking, But You Shouldn't Freak Out Gizmodo

Working for Natural Gas Interests, Former Cuomo Aides Lobbied to Kill Indian Point Nuclear Plant Environmental Progress; 6 Jan 2017

Environmental Progress (EP) has learned that two top former aides to New York Governor Andrew Cuomo worked with a major Cuomo campaign contributor, the natural gas company Competitive Power Ventures, to close Indian Point nuclear plant.
The New York Times reported today that Indian Point's operator had agreed to close the plant, bowing to intense pressure from Cuomo.
Mention of the episode is an a federal criminal indictment filed by Preet Bharara, the U.S. Attorney in Manhattan, on September 22, 2016.
"Based on my review of publicly available documents and my interviews of witnesses," wrote the US attorney, "including employees of [Competitive Power Ventures], the importance of the [CPV Valley Energy Center] to the State depended at least in part, on whether [Indian Point] was going to be shut down."
The indictment suggests that Competitive Power Ventures and the Cuomo administration both recognized that if Indian Point were taken off line, it would be replaced by natural gas, not imported hydro and wind, as an anonymous source told the New York Times.

BREAKING: Closure of Indian Point Would Spike Power Emissions 29%, Reversing 14 years of Declines Environmental Progress; 8 Jan 2017

If New York Gov. Andrew Cuomo succeeds in his effort to close Indian Point nuclear power plant, carbon emissions will spike and the state will become more dependent on fossil fuels than it has been since 2000, a new Environmental Progress (EP) analysis finds.
EP finds:
  • New York's dependence on fossil fuels will rise from 44 percent to 56 percent of its electricity mix;
  • New York will lose 23 percent of its clean power;
  • Power sector carbon emissions will skyrocket 29 percent, from 31 to 40 million metric tons;
  • Twice as many emissions will be added as are required to be reduced under EPA's Clean Power Plan.
The replacement power for Indian Point is likely to come mostly from natural gas power plants, not renewables, including the CPV Energy Center, which is at the heart of a federal corruption investigation.
Indian point produces four times more power than all of New York's wind, and 236 times more power than all of New York's solar. New York is uniquely unsuited for solar, where it produces power just 15 percent of the year on average, according to New York's Independent System Operator

Diablo Canyon

Greens target license renewal for Diablo Canyon nuclear plant

Watts Bar

TVA's Watts Bar Unit 2 achieves commercial operation Ed Marcum; Knoxville News Sentinel; 19 Oct 2016

TVA began construction of the Unit 2 reactor in 1973, but stopped in 1985 because power demand had slowed, but costs associated with nuclear plants rose. TVA resumed work on the reactor in 2007 after deciding that it could be completed at a cost of $2.5 billion. However, TVA announced a revised budget and schedule in 2012, when the federal utility determined the project was $1.5 billion to $21 billion over budget and about three years behind schedule.TVA re-estimated that cost at nearly $4.5 billion with commercial operation to begin by June of this year. Since then, TVA managed to keep the project close to the new budget and schedule, although in February, the TVA board authorized an additional $200 million after flood prevention steps required after the Fukushima nuclear plant accident added to the initial cost.

The First U.S. Nuclear Plant In 20 Years Goes Online Zainab Calcuttawala; Oilprice; 19 Oct 2016

Roughly 650,000 homes in Tennessee will be powered by the first nuclear power generator to enter into commercial operation in the United States in 20 years, according to a new report by The Hill. The Tennessee Valley Authority’s Watts Bar 2 reactor will produce 1,150 megawatts of power, the company’s announcement on Wednesday said. The Nuclear Energy Institute counts Watts Bar 2, which formally connected to Tennessee’s power grid in June, as the 100th nuclear power reactor to operate in the United States.


Multiple milestones for Vogtle 3 and 4 World Nuclear News; 29 Mar 2016


Final Clean Power Plan Drops Support For Existing Nuclear Plants Jeff McMahon; Forbes; 3 Aug 2015



See also Energy Mix: Ontario

Report outlines Ontario nuclear refurbishment benefits and risks World Nuclear News; 22 Nov 2017

A new report by Ontario's Financial Accountability Office (FAO) has confirmed the province's plan to refurbish ten nuclear reactors at Bruce and Darlington, and extend the life of six reactors at Pickering will provide the a long-term supply of relatively low-cost, low emissions electricity over the period to 2064.
An Assessment of the Financial Risks of the Nuclear Refurbishment Plan looks at how financial risk would be allocated among ratepayers, the province, Ontario Power Generation (OPG) and Bruce Power. The FAO estimates the plan will result in nuclear generation supplying a "significant proportion" of Ontario's electricity demand from 2016 to 2064 at an average price of CAD80.7 ($63.3) per MWh, in 2017 Canadian dollars.






Nuclear Power in Finland Wikipedia

Finland Plans Phaseout Of Coal With Nuclear To Help Fill Gap Neutron Bytes; 10 Sep 2017

(NucNet) Finland will introduce legislation in 2018 to phase out coal and increase carbon taxes with additional nuclear capacity from two new reactors.
Riku Huttunen, director-general of Finland’s Ministry of Economic Affairs and Employment, told Reuters that the current strategy is to get rid of coal by 2030 and that the process will be started by legislation due next year.
According to the International Energy Agency, Finland is highly dependent on imported fossil fuels – coal, oil and gas – with coal producing about 10% of the country’s consumption.
To cope with the gap left by coal, Finland will have to increase the amount of energy produced from other fuel sources, Mr Huttunen was quoted as saying.
Nuclear power could take up the slack as two new reactors – the Olkiluoto-3 EPR and the Russia-supplied Hanhikivi-1– are scheduled to come online in 2018 and 2024.
Finland wants to increase its energy security by relying less on imports. Around 70% of coal is imported from Russia. According to the International Atomic Energy Agency, Finland’s four existing nuclear units at Olkiluoto and Loviisa accounted for almost 34% of electricity production in 2016.


Belgium to give iodine pills to entire population in case of nuclear disaster Jess Staufenberg; Independent; 29 Apr 2016

'We know they don't really have a grip on the terrorist situation in Belgium,' a Green Party MEP has said

Belgium closes down its nuclear plants by 2025 The Brussels Times; 29 Oct 2019

By the end of 2025, the Belgian nuclear plants will have to be closed down, but it is unclear how possible power shortages can be avoided.
The government proposes a ‘Capacity Remuneration Mechanism’ (CRM), in which companies that produce extra energy or reduce their consumption, can enter an auction for compensation from the government.
The government wants to present the dossier to the EU in mid-December, but nobody knows yet what the CRM will look like, and who will pay for it.
Electrabel’s chairman, Johnny Thijs, calls for three of the seven nuclear power plants to be kept open longer, New Mobility reports.
Several scientists call for the same solution. “But that is not a guarantee for supply,” says Sara Van Dyck, of the ecologist’s federation Bond Beter Leefmilieu. “We have seen that these nuclear power plants are often out of order.”
Climate plan
The government hasn’t revealed exactly how much capacity Belgium will auction off. But first, it will have to present a climate plan that shows which energy measures it is taking.
If this plan has to be reworked to obtain approval, the CRM plan will have to be put on hold.
Not only gas-fired power stations but also renewable energy is eligible for support, as are companies that are prepared to use less energy at certain times.
Minister Marghem says that she is working hard on these implementing decrees. “We first have to take it to the Council of Ministers before we submit it to Europe for pre-notification,” she says through her spokesman.


Vattenfall sues Germany over phase-out policy World Nuclear News; 16 Oct 2016

Swedish utility Vattenfall is suing Germany at the Washington-based International Centre for Settlement of Investment Disputes over the closure of the Brunsbüttel and Krümmel nuclear power plants. The move follows the German government's decision to withdraw from nuclear power in the wake of the Fukushima Daiichi accident. Vattenfall spokesman Magnus Kryssare declined to confirm German media reports that the Swedish company is seeking €4.7 billion ($6 billion) in damages.

Swedish Utility Suing Germany Over Closure Of Brunsbüttel & Krümmel Nuclear Power Plants Glenn Meyers; Cleantechnica; 17 Oct 2016


As Poland Exits Coal, a Billionaire Offers First Nuclear Plant Maciej Martewicz, Konrad Krasuski; Bloomberg; 22 Oct 2019

Poland’s second-richest man may beat the government in building the nation’s first nuclear power plant.
Michal Solowow’s Synthos SA, the second-largest European maker of synthetic rubber, signed a memorandum with GE Hitachi Nuclear Energy to build a small 300-megawatt reactor next to the company’s factory in southern Poland, which could be completed as early as 2027. That’s six years earlier than the government expects to build its first plant in a plan to construct at least 6 gigawatts of nuclear and cut the nation’s reliance on coal for electricity generation.
“Small modular reactors can play a significant role in addressing Poland’s energy challenges,” Sololow said Tuesday in a statement. They “will improve our chances to move away from coal and have a positive impact on our industry and nation.”
Poland, which gets about 80% of its electricity from burning coal, is slowly coming to terms with the fact that it has no choice but to shed the dirty fuel to meet European Union climate goals. To do so, it’s energy policy is counting on gas, offshore wind, solar energy and nuclear, which it sees generating about 20% of its needs by 2040.
Solowow hopes that GE’s small modular reactor will be licensed in North America in 2024, which would would allow the company to build the unit in 2027, he said by telephone on Tuesday. Katherine Poseidon, a European policy analyst at BloombergNEF, said she doesn’t expect the first SMR to be online before 2026.
Solowow, whose energy-intensive businesses also produce ceramic tiles and wood flooring, seeks to produce cheaper and cleaner electricity than coal, which is becoming more expensive in power generation as the EU’s climate policy makes carbon-dioxide permits more expensive. The richest Pole, Zygmunt Solorz, earlier this year announced a push to promote green solutions.
The estimated costs of large nuclear projects in France, the U.K. and Finland have repeatedly been increased. Poland’s Energy Ministry in the 2040 policy published last year doubted that small reactors could be used any time soon and said investing in them would be “irrational.”
GE Hitachi says that small reactors are as much as 60% less expensive to build than regular ones and could compete with gas-fired plants and renewable energy.
“Small modular reactor technology is still a long way from commercialization,” BNEF’s Poseidon said. “It is definitely a big step for Poland -- it shows they’re serious about developing zero-carbon power generating capacity.”


Poll finds support for nuclear phaseout Urs Geiser;; 21 Oct 2016

A proposal to decommission Switzerland’s nuclear power plants by 2029 has the backing of a majority of citizens, according to a survey conducted seven weeks ahead of a nationwide vote. Despite this, pollsters believe the initiative is likely to be defeated on November 27.


Nuclear Power in the United Kingdom Wikipedia

Nuclear Options Euan Mearns; Energy Matters; 4 Aug 2016

With Hinkley Point C and nuclear new-build in the UK very much in the public eye, I have found the range of nuclear options being discussed rather confusing. This post provides an overview of the 6 main reactor designs that are vying for the global market today focussing on the large, >1 GW Generation III reactors. While the post focusses on the UK, the part on generic designs should be of interest to all readers.

Hinkley Point C *


Britain's Nuclear Secrets: Inside Sellafield will show viewers the reality of atomic power Daily Mirror; 23 Jul 2015

Physicist Jim Al-Khalili will present Britain's Nuclear Secrets: Inside Sellafield and aim to tell the story of the country's often controversial nuclear industry


See also KEPCO APR1400

First look at new Moorside nuclear plant Andrew Clarke; Times & Star; 27 Apr 2016

This is the first glimpse of what the new £10 billion Moorside nuclear power station could look like. NuGen - the firm behind the plans for Moorside - has published the artist's impression ahead of 28 public events being held across the county to give people the chance to have their say. Plans for the three-reactor site on land next to Sellafield - and its associated accommodation and transport links - are likely to have widespread impacts.


NuGen confirms Toshiba commitment to Moorside World Nuclear News; 14 Feb 2017

Toshiba Corp is committed to Moorside despite announcing today it would reduce its exposure to reactor construction projects outside Japan, the head of its UK joint venture, NuGeneration, has said. The Japanese electronics conglomerate reported a net loss of JPY390 billion ($3.4 billion) in the year to March 2017 and said it would book a JPY712.5 billion ($6.3 billion) loss on its US nuclear unit.
NuGen, of which Toshiba owns 60% and France's Engie 40%, plans to build a nuclear power plant of up to 3.8 GWe gross capacity at the site in West Cumbria, using AP1000 nuclear reactor technology provided by Westinghouse. Toshiba, which bought Westinghouse in 2006, warned in December last year that it might have to write off "several billion" dollars because of the purchase in 2015 of US construction firm CB&I Stone & Webster.

Korean energy firm rescues UK's Moorside nuclear power project Adam Vaughan; The Guardian; 6 Dec 2017

A state-owned South Korean energy firm is to take over construction of a troubled nuclear power station planned in north-west England, in a significant boost for the UK government’s nuclear ambitions.
Kepco has been declared the preferred bidder for the NuGeneration consortium, which looked doomed earlier this year after the Japanese owner Toshiba was hit by writedowns and the eventual bankruptcy of its US nuclear subsidiary.

An Overview of the KEPCO APR1400 Euan Mearns / Andy Dawson; Energy Matters; 18 Dec 2017

There have been two major developments in the progress of UK nuclear new build in the last two weeks or so – the announcement that KEPCO is now preferred bidder for the Moorside project in Cumbria, and the completion of the GDA (General Design Approval) process by Hitachi’s UK-ABWR design. It therefore seems a good time to set out a quick review of the key features of each design and specifically any adaptations to UK regulatory requirements. This article covers the KEPCO APR1400 and complements the article on the Chinese Hualong 1 design that was published on 14 November.


See also Hualong One

UK to start approval process for Chinese nuclear reactor at Bradwell Nina Chestney; Reuters; 10 Jan 2017

The British government has asked nuclear regulators to start the process for approving a Chinese-designed reactor for a proposed plant in Britain, expected to be one of the first new plants in decades. General Nuclear Services (GNS), an industrial partnership between French utility EDF and China General Nuclear Power Corporation(CGN), hopes to use the design at a new nuclear station planned to be built in Bradwell, Essex. CGN intends to make a number of investments in Britain's nuclear power sector, most notably the new Hinkley Point C project in southwest England which was approved by the government last September.

Welcome to the UK HPR1000, Generic Design Assessment (GDA) website

China General Nuclear Power Corporation (CGN) and EDF, through their joint venture company General Nuclear System Limited (GNS), commenced the Generic Design Assessment (GDA) process for the UK HPR1000 in January 2017.
GNS has been established to act on behalf of the three joint requesting parties (CGN, EDF and General Nuclear International) to implement the Generic Design Assessment of the UK HPR1000 reactor; more information on the each of these companies and the structure of GNS can be found on the About us page. For practical purposes GNS is referred to as the ‘UK HPR1000 GDA Requesting Party’.
In November 2017, the Regulators concluded that the information submitted by GNS during Step 1 is sufficient to allow the start of Step 2. Step 2 formally commenced on 16 November 2017 and is planned to last approximately 12 months. The targeted timescale for the UK HPR1000 GDA process is approximately five years from the start of Step 1.
This website has been set up to publish information on the HPR1000 nuclear reactor design that is currently undergoing assessment by the UK nuclear regulators – the Office for Nuclear Regulation and the Environment Agency. You can find out more information about the process on our GDA process page.
Within this site you will find information on the HPR1000 reactor technology, design, safety and environmental features. You can also access the range of technical documents that will be submitted to the regulators throughout the process in our Documents library.
As part of the GDA process we are now inviting you to comment on the HPR1000 reactor design and the regulatory submissions that we make to the regulators.

Step 2

The Preliminary Safety Report (PSR) was submitted to the regulators as part of Step 2. The PSR sets out a high level overview of the safety case, the environment case and the security claims for the proposed nuclear reactor design.
The main objective of the PSR is to provide sufficient information for the regulators to carry out Step 2 GDA and the scope of the report was agreed with the regulators during Step 1.
The PSR sets the initial structure of the Pre-Construction Safety Report (PCSR) which, through Steps 3 and 4 of the GDA process, will provide the arguments and evidence to substantiate the safety case claims.

China’s “Hualong 1” passes the first stage of the UK GDA process Euan Mearns / Andy Dawson; Energy Matters; 24 Nov 2017

As almost all readers of the blog will be aware, a team of EdF and China General Nuclear (CGN) have proposed the construction of a Chinese designed nuclear station at Bradwell, in Essex. On Thursday of this week, the UK Office of Nuclear Regulation announced that the design proposed for the station -the “HPR1000”, originally known as the “Hualong-1” has successfully completed the first, preparatory stage of the Generic Design Approval (GDA) process. This appears to have been completed on time, or perhaps a few weeks early.
While we shouldn’t over-state the importance of this particular transition – GDA is a four stage process, in which stages 2 & 3 are where the great majority of the detailed evaluation of the design from a safety perspective is undertaken – it is important in that it’s the first point at which the developers have to publish reasonably detailed data on the design. That data is available here.
This piece is intended to give an overview of the design, highlighted particular strengths and weaknesses that may affect the GDA outcome, and giving a comparison against the virtues and vices of the other contenders for UK build.


See also Hitachi ABWR

Plans for major nuclear power station in Wales win green light Adam Vaughan; The Guardian; 14 Dec 2017

The Office for Nuclear Regulation and two other government bodies gave the green light on Thursday for the Japanese reactor design for Horizon Nuclear Power’s plant at Wylfa, marking the end of a five-year regulatory process.
Attention will now turn to financing the Hitachi-backed project on the island of Anglesey, which was the site of Britain’s oldest nuclear plant until it closed two years ago.
During a visit by UK ministers to Japan last December, it emerged that London and Tokyo were considering public financing for Wylfa. This would be a significant break with the UK government’s previous approach.
Hitachi has already spent £2bn on development. Last week the consortium said it needed a financial support package by mid-2018 or it could stop funding development.
Japan’s Toshiba has bowed out of the race to build nuclear plants in the UK, confirming last week that a South Korean nuclear firm had been chosen to buy its venture to build a plant in Cumbria.
If Horizon is successful with Wylfa, it hopes to build a second new nuclear power station at Oldbury in Gloucestershire. The plants will use Hitachi’s advanced boiling water reactor (ABWR), which has been approved for use at Wylfa.
The Welsh plant would have a capacity of 2.7GW, similar to the 3.2GW of the nuclear power station that EDF is building at Hinkley Point in Somerset.


Nuclear Power in China Wikipedia

Fourth Ningde unit connected to grid World Nuclear News; 31 Mar 2016

Unit 4 at the Ningde nuclear power plant in China's Fujian province has been connected to the electricity grid, China General Nuclear (CGN) announced yesterday. The 1087 MWe CPR-1000 pressurized water reactor was connected to the grid at 11.02pm on 29 March, CGN said. Work on the nuclear island at Ningde 4 officially began in September 2010. The dome of its reactor building was successfully lowered into place in May 2012. Four Chinese-designed CPR-1000 units have been built as Phase I of the Ningde plant, near Fuding city. Work on the first unit started in February 2008, with construction of units 2 and 3 beginning in November 2008 and January 2010, respectively. Unit 1 began commercial operation in April 2013, while unit 2 began supplying electricity to the grid in January 2014. Unit 3 came online in June 2015.

Grid connection for Hongyanhe 4 World Nuclear News; 1 Apr 2016

Unit 4 of the Hongyanhe nuclear power plant in China's Liaoning province today began supplying electricity to the grid. The reactor is expected to enter commercial operation later this year. The 1087 MWe CPR-1000 pressurized water reactor was connected to the grid at 9.52am today, China General Nuclear (CGN) said. Its grid connection came just two days after the connection of unit 4 at CGN's Ningde plant in Fujian province. Construction of Phase I of the Hongyanhe plant, comprising four CPR-1000 pressurized water reactors, began in August 2009. Units 1 and 2 have been in commercial operation since June 2013 and May 2014, respectively, while unit 3 entered commercial operation last August.

The nuclear option Nature (editorial) 4 May 2016

China is vigorously promoting nuclear energy, but its pursuit of reprocessing is misguided.

Hualong One

China Adapted US and European Nuclear Reactor Technology at Four Times Lower Cost Brian Wang; Next Big Future; 30 Apr 2019

China will start operating two new large Hualong nuclear reactors this year and another two next year. Each Hualong nuclear reactor will generate one gigawatt of nuclear power. They were made by adapting third generation US and European nuclear reactor technology designs. CNNC ‘Hualong One’ version will be the main domestic model built with the aim of lowering the price of the reactor to equip the national fleet cheaply while having generation 3 or or 3.5 safety levels.
Target cost in China is $2800-3000/kWe, though recent estimates mention $3500/kW. CGN said in November 2015 that the series construction cost would be CNY 17,000/kWe ($2650/kWe), compared with CNY 13,000/kWe for generation II reactors. This is about four times lower cost than US and European reactors built in the USA. China’s costs have been far lower but China’s build of the Western AP1000 system and the French EPR had cost and time overruns. Hualong was originally planned as a reactor for export but is now a main option in China because of problems on the AP1000 construction.
The CNNC and CGN versions will be very similar but not identical; they will have slightly different safety systems, with CNNC use more passive safety under AP1000 influence with increased containment volume and two active safety trains, and CGN with French influence having three active safety trains.
The Hualong One or HPR1000 has 177 fuel assemblies 3.66 m long, 18-24 month refuelling interval, equilibrium fuel load will be 72 assemblies with 4.45% enriched fuel. It has three coolant loops, double containment and active safety systems with some passive elements, and a 60-year design life. The passive systems are able to operate for 72 hours with a sufficient inventory of storage water and dedicated batteries. The CGN version delivers 3150 MWt, 1150 MWe gross, 1092 MWe net, while CNNC quotes 3050 MWt, 1170 MWe gross, 1090 MWe net. Average burn-up is 45,000 MWd/tU, thermal efficiency 36%. Seismic tolerance is 300 Gal. Instrumentation and control systems will be from Areva-Siemens, but overall 90% will be indigenous components.



South Korea

US NRC set to certify APR-1400 reactor design World Nuclear News; 01 May 2019

The US Nuclear Regulatory Commission (NRC) has said it will issue a direct final rule certifying the Korean-designed Advanced Power Reactor 1400 (APR-1400). The certification, valid for 15 years, will state that the NRC finds the design fully acceptable for deployment in the USA.
Korea Electric Power Corporation (Kepco) and its subsidiary Korea Hydro and Nuclear Power (KHNP) originally submitted the design to the NRC in September 2013. They then submitted a revised version of its application in December 2014. The NRC completed an acceptance check in March 2015 and ruled that the revised application was sufficiently complete for it to undertake a full design certification review.
The design certification process determines whether a reactor design meets US safety requirements, independent of any specific site or plan to build. It is a required step before a reactor design can be built in the USA, as it can be referenced in construction and operation licence (COL) applications for specific reactor projects.
The NRC announced yesterday that it has completed its review and will issue a rule certifying the APR-1400 design. The rule will become effective 120 days following publication in the Federal Register.
The NRC has already certified five other standard reactor designs: General Electric's Advanced Boiling Water Reactor (ABWR); Westinghouse's System 80+, AP600 and AP1000; and, GE's Economic Simplified Boiling Water Reactor. It is also reviewing applications to certify Mitsubishi's US Advanced Pressurised Water Reactor (US-APWR) and the NuScale small modular reactor. NRC staff are also reviewing an application to renew the ABWR certification.
The APR-1400 is an evolutionary pressurised water reactor with its origins in the CE System 80+ model. Principally designed by Korea Engineering Company (Kopec), it produces 1400 MWe and has a 60-year design life. It supercedes the standardised 995 MWe OPR-1400 design, of which South Korea built 12. The APR-1400 features improvements in operation, safety, maintenance and affordability based on accumulated experience as well as technological development. Design certification by the Korean Institute of Nuclear Safety was awarded in May 2003.
Construction of the first two APR-1400s - as units 3 and 4 of South Korea's Shin Kori plant - began in October 2008 and August 2009, respectively. Unit 3, which was originally scheduled to enter commercial operation at the end of 2013, eventually reached first criticality in December 2015, was connected to the grid in January 2016 and entered commercial operation in December that year. Unit 4 achieved first criticality on 8 April this year, with grid connection on 22 April.
Construction of two further APR-1400 reactors at Shin Kori - units 5 and 6 - began in April 2017 and September 2018, respectively. Unit 5 is scheduled to begin commercial operation in March 2022, with unit 6 following one year later. Two further APR-1400 units are under construction in South Korea as units 1 and 2 of the Shin Hanul site.
A further four APR-1400s are under construction at Barakah in the United Arab Emirates, with the first of those units scheduled to begin operation in 2020.

(News Focus) S. Korea eyes nuclear decommissioning as Kori-1 retires Kang Yoon-seung; YONHAP News Agency; 30 Oct 2019

When South Korea vowed to reduce heavy reliance on nuclear power in favor of renewable energy sources with the retirement of the Kori-1 reactor in 2017, a key question rose to the surface -- how can a reactor be decommissioned safely?
South Korea is set to retire 11 out of 24 reactors on its soil by the end of 2030.
The retirement of South Korea's oldest nuclear reactor is significant as it not only symbolizes the country's shift towards new energy sources, but also the birth of the nuclear-plant decommissioning industry.


Shikoku moves closer to Ikata 3 restart 4 Mar 2016

Japanese institute sees 19 reactor restarts by March 2018 World Nuclear News; 28 Jul 2016

Seven Japanese nuclear power reactors are likely to be in operation by the end of next March and 12 more one year later, according to an estimate by the Institute of Energy Economics, Japan (IEEJ).


India budgets to boost nuclear projects 1 Mar 2016

extra 30 billion rupees ($442 million) to boost nuclear power generation projects over the next 15-20 years
India has 21 nuclear power plants in operation, with six under construction, and plans for further construction of both indigenous pressurized heavy water reactors and projects with overseas partners. In April 2015 the government gave its approval in principle for new nuclear plants at ten sites in nine states: indigenous PHWRs at Gorakhpur in Haryana's Fatehabad; Chutka and Bhimpur in Madhya Pradesh; Kaiga in Karnataka; and Mahi Banswara in Rajasthan; and plants with foreign cooperation at Kudankulam in Tamil Nadu (VVER); Jaitapur in Maharashtra (EPR); Mithi Virdhi in Gujarat (AP1000); Kovvada in Andhra Pradesh (ESBWR) and Haripur in West Bengal (VVER). Two 600 MWe fast breeder reactors are also proposed at Kalpakkam.
In January, Indian prime minister Narendra Modi and French president Francois Hollande said that the two countries are on course to finalize a deal on the construction of six EPR units at Jaitapur by the end of the year. The same month, the Indian cabinet confirmed that commercial negotiations between Nuclear Power Corporation of India Ltd (NPCIL) and Westinghouse on the construction of six AP1000 units at Mithi Virdi in India were also on course to be finalized this year.

A future energy giant? India's thorium-based nuclear plans; 1 Oct 2010

India's secretive nuclear story: A tale of cheers and tears Pallava Bagla; The Economic Times (India); 17 Jul 2016

At India's highly-guarded and walled atomic establishment, there are cheers in southern India, but tears in the western part of the country.
Much to cheer about at Kudankulam, as India's largest nuclear power park situated not far from the tip of India, Kanyakumari, is now operational. The twin 1000 MW atomic reactors have nuclear fission reaction running in them for the first time. The first unit started supplying electricity in 2013 and the second unit which became operational this week and will start feeding electricity to the grid in a few weeks.
At the same time, some 2000 km away, some grief and tears since the indigenously made Kakrapar Atomic Power Station in Gujarat remains shut for nearly four months after a leak in the nuclear island of the reactor forced an emergency shut down of a fully operating plant.


Russia plans start-up of first Gen-III+ unit this summer World Nuclear News; 30 Mar 2016

ASE Group has announced plans for Russia to connect its first Generation-III+ nuclear power unit to the grid this summer. The first fuel assembly was loaded at unit 1 of the Novovoronezh II nuclear power plant in western Russia on 24 March at 3.28am, while the "active phase" of the loading process began the following day. Novovoronezh 6 is a Generation-III+ VVER 1200/392M pressurised water reactor (PWR) unit with a design net capacity of 1114 MWe. It is the first of two units at Novovoronezh II - the lead project for the deployment of the AES-2006 design incorporating a Gidropress-designed PWR, an evolutionary development from the VVER-1000. Construction of Novovoronezh II units 1 and 2, also known as Novovoronezh units 6 and 7, began in June 2008 and July 2009, respectively. The original Novovoronezh site nearby already hosts three operating reactors and two that are being decommissioned.

Nuclear Power in Russia World Nuclear Association; Oct 2018

  • Russia is moving steadily forward with plans for an expanded role of nuclear energy, including development of new reactor technology.
  • It is committed to closing the fuel cycle, and sees fast reactors as a key to this.
  • Exports of nuclear goods and services are a major Russian policy and economic objective. Over 20 nuclear power reactors are confirmed or planned for export construction. Foreign orders totalled $133 billion in late 2017.
  • Russia is a world leader in fast neutron reactor technology and is consolidating this through its Proryv ('Breakthrough') project.



IAEA approves Kenya nuclear power application 25 Apr 2016