How Britain helped the North Korean nuclear weapons program
The news that North Korea has successfully tested its first hydrogen nuclear warhead (an assertion which has been seriously questioned by nuclear weapons experts) has set the media and politicians running pronouncing concerns over the impact on global security.
What hasn't been discussed is how British nuclear designs have been purloined by the North Koreans to build production plants for their nuclear explosives. There is significant evidence that the British Magnox nuclear plant design – which was primarily built as a military plutonium production factory – provided the blueprint for the North Korean military plutonium program based in Yongbyon.
Here is what Douglas (now Lord) Hogg, then a Conservative minister, admitted in a written parliamentary reply in 1994: "We do not know whether North Korea has drawn on plans of British reactors in the production of its own reactors. North Korea possesses a graphite moderated reactor which, while much smaller, has generic similarities to the reactors operated by British Nuclear Fuels plc. However, design information of these British reactors is not classified and has appeared in technical journals."1
The uranium enrichment programs of both North Korea and Iran also have a UK connection. The blueprints of this type of plant were stolen by Pakistani scientist, A.Q. Khan, from the URENCO enrichment plant in The Netherlands in the early 1970s.2 This plant was – and remains – one-third owned by the UK government. The Pakistan government subsequently sold the technology to Iran, who later exchanged it for North Korean Nodong missiles.
A technical delegation from the A.Q. Khan Research Labs visited North Korea in 1996. The secret enrichment plant was said to be based in caves near Kumch'ang-ni, 100 miles north of the capital, Pyonyang, where U.S. satellite photos showed tunnel entrances being built. Hwang Jang-yop, a former aid to President Kim Il-sung (the grandfather of the current North Korean President) who defected in 1997, revealed details to Western intelligence investigators.3
Magnox is a now obsolete type of nuclear power plant (except in North Korea) which was designed by the UK Atomic Energy Authority (UKAEA) in the early 1950s, and was exported to Italy and Japan. The name magnox comes from the alloy used to clad the fuel rods inside the reactor.
The plutonium production reactors at Calder Hall on the Sellafield site – then called Windscale, operated by the UKAEA – were opened by the young Queen Elizabeth in 1956. But it was never meant as a commercial civilian nuclear plant: the UKAEA official historian Kenneth Jay wrote about Calder Hall, in his short book of the same name, published to coincide with the opening of the plant. He referred to "major plants built for military purposes, such as Calder Hall." Earlier, he wrote: "The plant has been designed as a dual-purpose plant, to produce plutonium for military purposes as well as electric power."
The term magnox also encompasses three North Korean reactors, all based on the open access blueprints of the Calder Hall Magnox reactors, including:
- A small 5 MWe experimental reactor at Yongbyon4, operated from 1986 to 1994, and restarted in 2003. Plutonium from this reactor's spent fuel has been used in the North Korea nuclear weapons program.
- A 50 MWe reactor, also at Yongbyon, whose construction commenced in 1985 but was never finished in accord with the 1994 U.S.-North Korea Agreed Framework.5
- A 200 MWe reactor at Taechon, construction of which also halted in 1994.
Why enrich the people when you can enrich uranium?
Olli Heinonen6, senior fellow at the Belfer Center for Science and International Affairs at Harvard University in the US, has explained how North Korea obtained its uranium enrichment capability:7
"The pre-eminence of Juche, the political thesis of Kim Il Sung, stresses independence from great powers, a strong military posture, and reliance on national resources. Faced with an impoverished economy, political isolation from the world, and rich uranium deposits, nuclear power – both civilian as well as military – fulfils all three purposes.
"History and hindsight have shown a consistency in North Korea's efforts to develop its own nuclear capability. One of the first steps North Korea took was to assemble a strong national cadre of nuclear technicians and scientists. In 1955, North Korea established its Atomic Energy Research Institute. In 1959, it signed an agreement with the Soviet Union to train North Korean personnel in nuclear related disciplines. The Soviets also helped the North Koreans establish a nuclear research center and built a 2 MW IRT nuclear research reactor at Yongbyon, which began operation in 1969.
"Throughout the 1970s, North Korea continued to develop its nuclear capabilities, pursuing a dual track approach that was consistent with the idea of nuclear self-reliance. While engaging in discussions to obtain Light Water Reactors (LWRs) from the Soviet Union, North Korea proceeded with parallel studies on graphite moderated gas cooled reactors, using publicly available information based on the Magnox reactor design.
"North Korea also carried out plutonium separation experiments at its Isotope Production Laboratory (IPL), and successfully separated plutonium in the same decade. The North Koreans worked on the design of a reprocessing plant for which, the chemical process was modeled after the Eurochemic plant. Eurochemic was a research plant dedicated to the reprocessing of spent nuclear fuel. It was owned by thirteen countries which shared and widely published technologies developed. The plant, located in Dessel, Belgium, operated from 1966 to 1974.
"When negotiations to acquire four LWRs from the Soviet Union failed, North Korea had already embarked on its indigenous nuclear program. Throughout the 1980s, North Korea constructed a 5MWe reactor, fuel fabrication plant, and a reprocessing plant at Yongbyon, with no known documented external help and with minimal foreign equipment procured. When the joint statement on the Denuclearization of the Korean Peninsula was concluded in December 1991, all three facilities had been fully operational for a number of years, with two additional (50 MWe and 200 MWe) graphite moderated gas cooled reactors under construction.
"North Korea's closed society and isolationist position has made it immensely difficult to accurately gauge its nuclear activities. Pyongyang has gone to great lengths to hide much of its nuclear program, including its enrichment route. Nevertheless, there have been indications, including procurement related evidence, that point in the direction that North Korea has been actively pursuing enrichment since the mid-1990s, with likely exploratory attempts made up to a decade earlier.
"It is clear that North Korea received a key boost in its uranium enrichment capability from Pakistan through the A.Q. Khan network. Deliveries of P-1 and P-2 centrifuges, special oils, and other equipment from Pakistan to North Korea in the late 1990s were acknowledged by former Pakistani President General P. Musharraf in his memoirs, "In the Line of Fire." President Musharraf also wrote that, separately, North Korean engineers were provided training at A.Q. Khan's Research Laboratories in Kahuta under the auspices of a government-to-government deal on missile technology that had been established in 1994. In all likelihood, North Korea also received the blue prints for centrifuges and other related process equipment from the Khan network during that period of time.
"In the late 1980s, North Korea acquired vacuum equipment from a German company. While such equipment was primarily meant for North Korea's fuel fabrication plant then under construction, some of the vacuum pumps could have been used for enrichment experiments. But additional attempts made in 2002 to again acquire vacuum technology after the completion of the fuel fabrication plant strongly pointed to its use for enrichment purposes. Evidence of North Korea's procurement activities in the late 1990s to the early 2000s showed its objective to achieve industrial or semi-industrial scale enrichment capacity, based on a more efficient Pakistani P-2 centrifuge design. In 1997, an attempt was made to acquire large amounts of maraging steel suitable for manufacturing centrifuges. In 2002/2003, North Korea successfully procured large quantities of high strength aluminum from Russia and the United Kingdom, another requirement in making centrifuges. A simple tally of the amounts and types of equipment and material sought by North Korea suggests plans to develop a 5000-centrifuge strong enrichment capacity. This appears consistent with a separate earlier enrichment offer A. Q. Khan had made to Libya.
"For North Korea to have embarked on procuring equipment and materials meant for a (semi)industrial scale enrichment facility, it is highly likely that the known Uranium Enrichment Workshop (UEW) at Yongbyon, which in reality approximates a full sized facility, is not the only one that exists. More workshops would have been needed to serve as test beds for pilot cascades of P-1 and P-2 centrifuges prior to (semi)industrial scale enrichment operations. While we have signs of North Korea's enrichment goals, the final picture remains unclear given that the actual amount of items procured remains unknown. This problem is compounded by the fact that the North Koreans have and are continuing to source nuclear material and equipment from several parties. Moreover, there remains a high degree of uncertainty concerning the level of North Korea's enrichment technology development.
"In April 2009, after expelling IAEA inspectors, North Korea publicly announced for the first time that it was proceeding with its own enrichment program. To reinforce its intentions, North Korea followed up with a letter to the UN Security Council on September 3 to confirm that it was embarking on an enrichment phase. In November 2010, the North Koreans unveiled to Siegfried Hecker, a pre-eminent nuclear expert and former director of the Los Alamos Nuclear Laboratory, an enrichment facility in Yongbyon with 2000 centrifuge machines similar to the P-2 version, built with maraging steel rotors. The scale, level of sophistication, and brazenness for the North Koreans to have built a (until then) secret enrichment facility at the same site of a previously IAEA-monitored building, caught international attention. The plant is proof of North Korea's steady pursuit to include uranium enrichment as part of its domestic nuclear fuel cycle. ...
"On March 22, 2011, North Korea's official news agency, KCNA, portrayed Libya's decision to give up its nuclear weapons as a mistake that opened the country to NATO intervention following its domestic Arab Spring uprising. Such conclusions drawn by North Korea make an already difficult case to engage North Korea to give up its nuclear weapon deterrence that much harder. At the same time, the alternative of disengagement will in all likelihood bring about greater problems.
"In engaging North Korea, several key hurdles have to be tackled. First, North Korea shows a poor proliferation record. It was the suspected supply source of UF6 to Libya via the A.Q. Khan network. There is also mounting evidence that North Korea was involved in the construction of a secret nuclear reactor at Dair Alzour in Syria that was subsequently destroyed in 2007. It is plausible that North Korean personnel assisted Syria in building the reactor."
Reprinted from http://drdavidlowry.blogspot.co.uk/2016/01/how-britain-helped-north-kore...
1. Douglas Hogg, written parliamentary reply to Labour MP Llew Smith, Hansard, 25 May 1994, http://hansard.millbanksystems.com/written_answers/1994/may/25/korea#col...
2. David Albright, Peddling Peril, 2010, pp 15-28, Free Press, New York.
3. Levy A, Scott-Clark C, 'Deception: Pakistan, the United States, and the Global Weapons Conspiracy', 2007, p.281, Atlantic Books.
7. Olli Heinonen, 'North Korea's Nuclear Enrichment: Capabilities and Consequences', 22 June 2011, http://belfercenter.ksg.harvard.edu/publication/21153/north_koreas_nucle...