WorldWideScience

Sample records for future nuclear industry

  1. Future contracts in the nuclear fuel industry

    International Nuclear Information System (INIS)

    Fuller, D.M.

    1995-01-01

    In a modern futures market, standardized contracts for future delivery of a commodity are traded through an exchange that establishes contract terms and the rules of trading. The futures contract itself is simply an agreement between a buyer and a seller in which the seller is obligated to deliver and the buyer is obligated to accept a predetermined quantity of a specified commodity at a given location on a certain date in the future for a set price. Organized futures markets aid in price discovery; provide a risk management tool for those with commercial interests in a commodity; create speculative opportunities; and contribute to competitiveness, efficiency, and fairness in trading. There are, at present, no standardized futures contracts in the nuclear fuel industry, although the concept has been discovered for years. The idea has been raised again recently in relation to the disposition of Russian uranium. Some adaptation of traditional futures contracts, traded on an exchange composed of nuclear fuel industry participants, could provide many of the benefits found in other commodity futures markets

  2. Future trends for electrolysers in nuclear industry

    International Nuclear Information System (INIS)

    Manifar, T.; Robinson, J.; Ozemoyah, P.; Robinson, V.; Suppiah, S.; Boniface, H.

    2011-01-01

    The nuclear industry, through the application of electrolysers, can provide a solution to energy shortage with its competitive cost and can be one of the major future sources of hydrogen production with zero carbon emission. In addition, development of complementary, yet critical processes for upgrading or detritiation of the heavy water in the nuclear industry can be advanced with the application of electrolysers. Regardless of the technology, the electrolyser's development and application are facing many technical challenges including radiation and catalysis. In this paper, three main types of electrolysers are discussed along with their advantages and disadvantages. Proton Exchange Membrane (PEM) electrolysers look promising for hydrogen (or its isotopes) production. For this reason, Atomic Energy of Canada Limited (AECL) in collaboration with Tyne Engineering has started design and fabrication of PEM electrolysers with more than 60 Nm 3 /hr hydrogen production capacity for the application in nuclear industry. This electrolyser is being designed to withstand high concentrations of tritium. (author)

  3. The future of the nuclear plant industry

    International Nuclear Information System (INIS)

    Franklin, N.L.

    Against the background of world-wide controversy, the future of nuclear power in the United Kingdom is discussed. The various forecasts of electricity demand are considered in relation to the need for long-term planning in the nuclear industry. It is considered that towards the end of the century uranium will be in short supply for technical or political reasons, and that the emphasis would then be on the use of fast reactors (assuming nuclear power to be politically acceptable at that time). A possible UK programme is outlined, and the question of cooperation with other countries is referred to. Thermal reactors for use in the middle term are discussed. The possibilities of export are considered briefly. The effects of world economic recession, public opposition on environmental and other grounds, and the possibility of misuse of nuclear materials are considered. (U.K.)

  4. The nuclear industry and its markets in Europe. 1996, strategic and financial future prospects. Synthesis

    International Nuclear Information System (INIS)

    1996-01-01

    This synthesis report assesses the strategic and financial future prospects of the nuclear industry. It includes in particular the future prospects of the nuclear energy demand increase in the world and compares the nuclear power production with the electric power production due to other energy sources. The different markets of the nuclear industry are detailed. At last are given the main European manufacturers of the nuclear sector. (O.M.)

  5. The nuclear industry and its markets in Europe. 1996, strategic and financial future prospects

    International Nuclear Information System (INIS)

    1996-01-01

    This work deals with the strategic and financial future prospects of the nuclear industry. It is divided into four parts. The first one gives the explanatory factors of the nuclear energy demand (economic and non-economic factors, energy policy..) and the future prospects of the nuclear energy demand increase in the world. It compares the nuclear power production with the electric power production due to other energy sources too. The second part details the different markets of the nuclear industry. The main markets are the extraction and concentration of natural uranium, its enrichment and conversion, the fuel production and the reactors designs. The growth markets are the spent fuels reprocessing and the nuclear energy services (maintenance, nuclear safety, radioactive materials transport..). The new markets are the nuclear wastes and the sites remedial action. The third part deals with the manufacturers responses as for the markets of the nuclear industry. The last part gives the reactors designers and the fuel cycle firms. (O.M.)

  6. Current status and future prospects on nuclear industry in Korea

    International Nuclear Information System (INIS)

    Lee, Joongjae

    2006-01-01

    It is ny great pleasure to have this chance of speaking at twenty-first KAIF/KNS Annual Conference, with the subject of the current status and future prospects of nuclear industry in Korea. As you all know, since the start of operation in Obninsk, the former Soviet Union, on June 26th, 1954, nuclear generation in the world has expanded continuously for the past 50 years. In 1973, when the first oil crisis hit the world, there were 147 nuclear power plants in operation, supplying only 0.8% of the world energy demand. About 30 years later, by the end of last year, 443 plants were in operation in 32 countries, supplying about 16% of the world power demand. Nuclear power generation is greatly contributing to the energy security of many countries and preservation of global environments. Recently, countries all over the world are becoming aware of the values and importance of nuclear energy which can help respond to energy crises caused by a sharp rise in oil prices and protect the earth from global warming. Due to its high energy density and ability to secure fuel supply at a lower cost, in addition to its cleanliness resulting from almost no emission of greenhouse gases, nuclear power generation is the practical alternative for energy security and the prevention of global warming. However, in the rapidly changing 21st century, the nuclear industries of the world, as well as Korea, are facing more challenges than ever before. The political and social disputes on nuclear generation are continuing while we all are facing urgent challenges, including the concerns about the safety of nuclear generation, procuring site to build nuclear power plants, and the improvement of competitiveness. Please allow me to remind you that it is very important for the world's nuclear societies to cooperate together in order to overcome diverse difficulties along our path and to contribute to the development of mankind and preservation of natural environments with nuclear power as a

  7. The future of the nuclear industry in the United States

    International Nuclear Information System (INIS)

    Rosa Marina Bilbao y Leon

    1999-01-01

    This paper investigates the future role of nuclear power as most utilities face the deregulation of the electric power industry with a movement towards a competitive market and as the Kyoto Protocol calls for a significant cut in greenhouse gas emissions for most of the industrialized nations in the world. There is a full spectrum of opinions in the matter and there are no correct answers to the questions. We can only speculate about what is likely to happen, and how it is going to happen. In addition to a review of the available literature, and in an attempt to make a complete and balanced review of all the issues and implications of future choices, a survey was submitted to several experts in energy related issues in the U.S. These experts came from different backgrounds and professional status, and it was intended to have a balance between nuclear-related experts and all others. This paper collects and summarizes the responses to the survey in an ordered and objective manner. (author)

  8. Future global manpower shortages in nuclear industries with special reference to india including remedial measures

    International Nuclear Information System (INIS)

    Ghosh Hazra, G.S.

    2008-01-01

    Full text: The Radiation Protection Program of the Environmental Protection Agencies of countries employ scientists, engineers, statisticians, economists, lawyers, policy analysts, and public affairs professionals amongst others. These professionals aim to protect workers, the general public, and the environment from harmful radiation exposures and to provide the technical basis for radiation protection policies and regulations. Professionals include Health physicists, Bio statistician, Radio chemist, Radio ecologist, Radio biologist etc. With a large proportion of the population of the nuclear workforce of many countries now approaching retirement age, existing power plants of these countries will be hard pressed to find enough qualified professionals to support their operations. The potential shortage of skilled manpower not only affects utilities, but also impacts the entire nuclear infrastructure, including national laboratories, federal and state agencies, nuclear technology vendors and manufacturing companies, nuclear construction companies, and university nuclear engineering departments. Manpower requirements exist in the nuclear power industry, universities and research establishments, hospitals, government departments, general industry e.g. radiography, transport, instrumentation etc., specialist contractors, agencies and consultancies serving radiation protection. India is no exception. India has the world's 12 th largest economy. Assuming India's average growth rate p.a. of more than 5%, total GDP by 2050 will increase substantially which will require proportionate increase of manpower for all industries. Also chance of brain drain is very high from developing countries e.g. from India to developed countries because of much higher pay and better lifestyle as there will be shortage of manpower in developed countries as explained above. With population growth to be stabilized in future in India, the working age population may not increase in the year 2030

  9. Key technologies for the current and future challenges of the nuclear industry

    International Nuclear Information System (INIS)

    Martinez-Sancho, Lou; Roulleaux Dugage, Martin

    2017-01-01

    The current challenges of the nuclear industry are the result of too many uncertainties: low GDP growth of OECD countries, booming state debts, deregulated electricity markets, growing safety regulation and diminishing public support. As a result, nuclear technology companies tend to entrench in their current installed base, while attempting to develop global partnerships to market their products to new nuclear countries, along with viable financing schemes. But new opportunities are lying ahead. In a future context of effective and global climate policies, nuclear energy will have to play a key role in a new energy ecosystem aside the two other clean air energy production technologies: renewable energies and electricity storage. And still, the perspective of long-term sustainability of nuclear energy is still high. This paper explores the opportunity for key innovative technologies to shift the way we think about nuclear in the future energy system while addressing these major challenges. (author)

  10. The young generation - guarantors for the future of the nuclear industry

    International Nuclear Information System (INIS)

    Broy, Y.

    2001-01-01

    For several years the 'YOUNG GENERATION' has been attracting great interest all over Europe. Based on the Young Generation Network of the European Nuclear Society (ENS) founded by Jan Runermark, in a lot of European countries a national Young Generation Network has been established, as well in Germany. Since October 1998 the Young Generation in Germany has been working in the frame of a difficult political situation after the decision was made about the phasing out of nuclear energy in Germany. Nowadays, our highly qualified and motivated young people who have been working for a couple of years in the nuclear field and already took over a lot of knowledge and experiences, have to decide: Is there a future for us in the nuclear industry? The paper will briefly summarise the wide range of activities of the German Young Generation. A selection of them will be chosen to highlight our fight for the future of nuclear energy in Germany, e.g. communication with the public, know-how-transfer, improvement of links between the fuel vendor and their customers. The main purpose is to point out: There is a young generation who is ready to take over the knowledge and the responsibility for the future. (author)

  11. Nuclear power industry

    International Nuclear Information System (INIS)

    1999-01-01

    This press dossier presented in Shanghai (China) in April 1999, describes first the activities of the Framatome group in the people's republic of China with a short presentation of the Daya Bay power plant and of the future Ling Ao project, and with a description of the technological cooperation with China in the nuclear domain (technology transfers, nuclear fuels) and in other industrial domains (mechanics, oil and gas, connectors, food and agriculture, paper industry etc..). The general activities of the Framatome group in the domain of energy (nuclear realizations in France, EPR project, export activities, nuclear services, nuclear fuels, nuclear equipments, industrial equipments) and of connectors engineering are presented in a second and third part with the 1998 performances. (J.S.)

  12. Transition in the nuclear industry

    International Nuclear Information System (INIS)

    Olyniec, J.H.

    1985-01-01

    Not long ago, nuclear energy was forecast to be the dominant force in the utility industry. An environmentally safe clean and inexpensive way to produce electricity would be welcomed by all. Civil engineering challenges on the leading edge of technology awaited the designer and constructor. As we now know, changes within the past 10 years have taken place that radically alter this outlook. Energy demand, thought to be ever increasing, was shocked by the rising costs. Plant construction delays, coupled with ever increasing regulatory requirements and higher interest rates, fueled the spiral or more cost. Economy of operation became overwhelmed by utility debt burden. Where is the nuclear utility industry now and what direction can we foresee. this symposium addresses the nuclear industry past, present, and future. The first session highlights some lessons learned from past experiences that must be applied in the future to be beneficial. Existing and future challenges are presented in the sessions on plant modifications and nuclear waste and decommissioning. The final session looks at the nuclear industry in transition from the perspectives of the different segments that make up the industry

  13. Working in nuclear industry? why not?

    International Nuclear Information System (INIS)

    Brechet, Y.

    2017-01-01

    Today 200 nuclear reactors are being built or scheduled in the world and despite this, nuclear energy in western countries seems to collapse under the weights of prejudices and false ideas. No matter what the opponents say, nuclear energy is safe and clean and is a bringer of jobs. In France nuclear industry is one of a few industrial sectors that have been spared by massive de-industrialization. Nuclear energy as a carbon-free energy, has an important role to play to mitigate climate warming by working with renewable energies to provide a reliable electric power. This future is a new future for nuclear energy as new challenges have to be overcome, for instance nuclear energy has to adapt itself to the intermittency of wind and solar energies, nuclear industry has to be innovative and has to fully appropriate numerical technologies. Nuclear industry is a promising sector that proposes interesting scientific and technical jobs and is also a vital interest for the country. (A.C.)

  14. Cooperation ability of Japan to China in nuclear power industries. Present status and future

    International Nuclear Information System (INIS)

    Murakami, Tomoko

    2006-01-01

    Japan is superior to China in the field of LWR plant operation and maintenance, FBR cycle included operation and control of reactor and reprocessing facility, and measures of safeguards and non-proliferation of all commercial nuclear power facilities from the point of view that Japanese technologies are better than the other countries and China needs the technologies. It is important that Japanese electric power companies, plant makers, fuel industries and research organizations developed their business in China in the above fields on the basis of their knowledge, strategies and/or trough network of negotiation of two governments such as forum for nuclear cooperation in Asia (FNCA)·Generation IV International Forum (GIF), and World Association of Nuclear Operators (WANO)·World Nuclear Association (WNA). Outline of finding new market and technical cooperation in the industry and future of nuclear power industry in China are stated. As the supplementary materials, table of operating, building and planning nuclear power plants, estimation of demand for uranium enrichment on the basis of estimation and plans of expansion of power plant facilities, and results of calculation of Separative Work Unit (SWU) from demand for uranium are illustrated. (S.Y.)

  15. Government perspective on current and likely future developments affecting the nuclear industry

    International Nuclear Information System (INIS)

    Walker, A.

    2000-01-01

    In October 1998 the Government published its Energy Sources White Paper, making it clear that what it wanted was an energy policy developed in a competitive market framework. The Government considers a competitive market is absolutely essential for both industrial and domestic energy users but the challenge for energy in the twenty-first century, not only in the UK but increasingly the world over, is how to deliver a competitive market and at the same time fulfil broader expectations for energy, particularly social, environmental, security and diversity objectives. Quite clearly, the nuclear industry needs to fit into this policy and the Government recognizes that it is a key player in achieving these goals. But it must be the industry itself, not the Government, that is the driver for change. The DTI believes that if the current and future economic opportunities in the nuclear industry are to be realized then there are challenges to be met in three areas: cost; waste management; and safety, environment and public confidence. This paper discusses the ways in which the industry can, with the Government's help, successfully meet these challenges. (author)

  16. Industry plots nuclear revival

    International Nuclear Information System (INIS)

    Nogee, A.

    1984-01-01

    A successful revival of the nuclear power industry will require standardization and a reduction in the number of companies managing construction, according to Atomic Industrial Forum spokesmen. In describing the concept of a few superutilities to build nuclear plants, they emphasize the need for a nuclear culture among construction management. Future plant designs emphasize small scale, with design, engineering, licensing, financing, operator training, and paperwork completed before the sale. Utilities continue to pursue economy-of-scale despite the evidence that small-scale reactors can be economical and are more appropriate for fluctuating demand growth. Financiers want more say in construction plans in the future, while utilities want to establish generating subsidiaries for wholesale power sales

  17. Future jobs in nuclear industry

    International Nuclear Information System (INIS)

    Asquier, S.

    2017-01-01

    CEA leads research on fast reactors in the framework of Generation-4 reactors, it also brings technical support to industrial partners like EDF or AREVA for today operating reactors. Computerized simulation is strongly developed in order to get reliable computers codes able to simulate mechanical behavior of new materials or neutron transport in new reactor cores. CEA is also in charge of the dismantling and remediation of its own nuclear facilities, today about 1000 people work on the dismantling of 35 facilities. CEA is also participating in fusion research programs. This broad range of activities makes CEA an important recruiter of competencies in a lot of domains from nuclear engineering to biological impact of radiations via computer sciences. (A.C.)

  18. Nuclear industry will soon surface

    International Nuclear Information System (INIS)

    Anon.

    1978-01-01

    The Japan Atomic Industrial Forum has carried out the annual survey of nuclear industry from the very inception of the development of nuclear power in Japan. The aim is to research and analyze nuclear-related expenditures, sales and manpower, as well as the future prospect of mining and manufacturing industries, electric utilities, trading companies and other related industries. The 19th fact-finding survey investigated into the actual conditions of the nuclear industry from April, 1977, to March, 1978. The number of companies surveyed increased by 75 from the previous year to 1,244, of which 883 or 71% responded to the questions. 501 companies did the business in the field of nuclear power. The first thing to be pointed out about the economic conditions of the nuclear industry is that the nuclear related expenditures increased in electric utilities, mining and manufacturing industries and trading companies, and exceeded 1 trillion yen mark for the first time in the private sector. It is likely that the current nuclear-related activities of mining and manufacturing industries will soon increase, but it will not be easy to wipe off the cumulative deficit of the industries. The employees increased by more than 7% in the nuclear-related sectors of electric utilities and mining and manufacturing industries. The facilities of nuclear supply industry were operated at the average rate of 50%. (Kako, I.)

  19. Nuclear Industry in China

    Energy Technology Data Exchange (ETDEWEB)

    Cong, W., E-mail: eweike@263.net.cn [Bureau of Geology, China National Nuclear Corporation, Beijing (China)

    2014-05-15

    The paper presents an overview of the present situation and future plans for the development of nuclear power in China. In particular it looks at the present electricity generation system, future demand and plans for nuclear power plants to meet the increasing demands for electrical power in the country. It summarizes the state of uranium exploration activities and planned production of uranium resources, both nationally and internationally. In addition, it provides a brief overview of the existing administrative situation in the nuclear power industry in China and sets out the main challenges to future development. (author)

  20. Lessons and future prospects for the nuclear industry in the USA

    International Nuclear Information System (INIS)

    Graham, John

    1995-01-01

    The most visible portion of the nuclear industry in the United States is its ongoing electrical generation program, in which 109 nuclear plants provide 21% of the nations electrical needs. However, the nuclear industry also includes nuclear medicine, agricultural uses of radiation sources, food irradiation, research, industrial applications of radiation sources, and even nuclear waste clean-up from old facilities and sites. Nuclear proponents need to be far more active in demonstrating to the public the wealth, and breadth, of all of the benefits that accrue from nuclear radiation even beyond the generation of electricity. We should also make known the damage that would be done to everyday lives if we were to lose the nuclear industry. There are certain issues which cut across all nuclear industries: the regulation of nuclear facilities, the disposal of wastes, the provision of isotopes, and the attitude and policy of the U. S. Government. It is necessary to understand these issues in order to formulate a proactive policy and a manner in which to conduct our advocacy of the beneficial uses of nuclear science and technology. The economic benefits, in terms of dollars and jobs, of the nuclear industry in sectors other than the power program are much larger than in the power program, and are not subject to the same hysterical opposition that has affected the power sector for the past twenty years. Moreover, industrial applications of nuclear radiation are so pervasive throughout the U. S. economy that they affect everyone. These applications have much less visibility than the power program, but they have some of the same problems. The non-power nuclear industry dose have its detractors, and, for example, the issue of low-level waste disposal, in particular, cuts across all sectors of the industry -- potentially damaging to a wide-ranging set of economic factors. Headlines seem to indicate that the end of the nuclear industry is at hand. Yet, public opinion polls

  1. The future of nuclear power in Europe

    International Nuclear Information System (INIS)

    Kurtz, D.

    1996-01-01

    The current and future prospects of the nuclear power industry in Europe are assessed in this Financial Times Energy Publishing report. Key issues relating to the development of the industry in both Eastern and Western Europe are addressed. Changing governmental and popular attitudes to nuclear power are described and nuclear energy's likely future contribution to Europe's energy needs is discussed. Detailed production and consumption statistics make the document useful reading for those in nuclear generating companies, electric utilities, major power consumers, waste management companies, governments, regulatory bodies, investors and environmental groups amongst others. (UK)

  2. The future of the nuclear industry: a matter of communication

    Energy Technology Data Exchange (ETDEWEB)

    De Waal, H S

    1993-11-01

    Since the very first successes achieved by the early scientists the infant nuclear industry was plagued by an atmosphere of uncertainty, conflict, anxiety and expectations. After the initial euphoria the Chernobyl accident shocked public opinion and perspectives changed. Nuclear energy is experience by the public in three dimensions. Firstly there are the technical realities of the reactor and its fantastically reduced source of power. Secondly, there is a psychological and political meaning, including the association of modern technology with authority, government, and control. The third dimension is the product of old myths about `divine secrets`, mad scientists dreadful pollution and cosmic apocalypse. To a large extent the nuclear industry is at fault for these emotional connotations. An early lapse in the communication process can be blamed for many of the misconceptions. The nuclear industry lost an opportunity by sticking to `vagueness`. Recent trends show that a pattern of conditional acceptance is present in public opinion with regard to the nuclear industry. Possible solutions, including better communication, aggressive marketing, and the training of scientists to become communicators, are discussed. A study was done of community attitudes around Koeberg, and it is concluded that the public must be convinced of the fact that nuclear power is clean, safe, cheap and accepted as such by the industrially developed word. 62 refs., 13 figs.

  3. The future of the nuclear industry: a matter of communication

    International Nuclear Information System (INIS)

    De Waal, H.S.

    1993-11-01

    Since the very first successes achieved by the early scientists the infant nuclear industry was plagued by an atmosphere of uncertainty, conflict, anxiety and expectations. After the initial euphoria the Chernobyl accident shocked public opinion and perspectives changed. Nuclear energy is experience by the public in three dimensions. Firstly there are the technical realities of the reactor and its fantastically reduced source of power. Secondly, there is a psychological and political meaning, including the association of modern technology with authority, government, and control. The third dimension is the product of old myths about 'divine secrets', mad scientists dreadful pollution and cosmic apocalypse. To a large extent the nuclear industry is at fault for these emotional connotations. An early lapse in the communication process can be blamed for many of the misconceptions. The nuclear industry lost an opportunity by sticking to 'vagueness'. Recent trends show that a pattern of conditional acceptance is present in public opinion with regard to the nuclear industry. Possible solutions, including better communication, aggressive marketing, and the training of scientists to become communicators, are discussed. A study was done of community attitudes around Koeberg, and it is concluded that the public must be convinced of the fact that nuclear power is clean, safe, cheap and accepted as such by the industrially developed word. 62 refs., 13 figs

  4. Nuclear energy and the nuclear industry

    International Nuclear Information System (INIS)

    1979-01-01

    These notes have been prepared by the Department of Energy to provide information and to answer questions often raised about nuclear energy and the nuclear industry and in the hope that they will contribute to the public debate about the future of nuclear energy in the UK. The subject is dealt with under the headings; contribution of nuclear power, energy forecasts, nuclear fuels and reactor types, cost, thermal reactor strategy, planning margin, safety, nuclear licensing, unlike an atomic bomb, radiation, waste disposal, transport of nuclear materials, emergency arrangements at nuclear sites, siting of nuclear stations, security of nuclear installations, world nuclear programmes, international regulation and non-proliferation, IAEA safeguards arrangements in the UK, INFCE, and uranium supplies. (U.K.)

  5. Nuclear power supply. The future perspective; services industries: scope and opportunities

    International Nuclear Information System (INIS)

    Tilbe, H.E.

    1984-01-01

    The Canadian nuclear industry seems not to have recognized the opportunities that exist in the nuclear service industries. The total market in this area ranges from $1 to $4 billion in the United States alone. The author describes briefly the experiences of his company, London Nuclear. (L.L.)

  6. The future of nuclear power

    International Nuclear Information System (INIS)

    Zeile, H.J.

    1987-01-01

    Present conditions and future prospects for the nuclear power industry in the United States are discussed. The presentation includes a review of trends in electrical production, the safety of coal as compared to nuclear generating plants, the dangers of radiation, the economics of nuclear power, the high cost of nuclear power in the United States, and the public fear of nuclear power. 20 refs

  7. BNFL's nuclear future

    International Nuclear Information System (INIS)

    Collum, H.

    2001-01-01

    As the nuclear industry arrives at a crossroads, this paper looks at BNFL's nuclear future. It does this by addressing two key issues: the energy balance and regulation. The first issue takes in the problems of climate change and renewables, and the nuclear contribution. The second issue raises the possibility that, although safety is the top priority for BNFL, the cost of regulation may be becoming disproportionate to the advantages gained. The paper concludes that the balancing act between energy supply and CO 2 reduction can only be achieved successfully if nuclear is a significant part of the equation. (author)

  8. Nuclear power. What policies for what future

    International Nuclear Information System (INIS)

    Thiriet, Lucien.

    1976-01-01

    A long- and very long-dated estimation of the world uranium resources are given comparatively to that of fissile energies, and the short- and mean-dated distributions of these resources and uranium economy are discussed in the light of foresights concerning the energy consumption provided for France and the most important industrial countries in 1985. The competitive character and the economic future of nuclear power are discussed. The incidence that the evolution in the nuclear policies of the principal industrial countries had, in the past, on the formation and growth of the market of nuclear power production is shown. The future possibilities of nuclear reactors and nuclear hydrogen are evaluated with the role of nuclear power in an economic policy in national independence [fr

  9. Future industrialization of the world and the necessity of nuclear power; how limited are resources?

    International Nuclear Information System (INIS)

    Jovanovic, J.

    1996-01-01

    Will the future world be forever divided into an industrial, developed and 'rich' on one side, and primitive, undeveloped, and poor on the other? Is an industrial, affluent and sustainable world of 10-15 billion people owning 5-10 billion cars physically possible to exist. Can the world have enough food, minerals and energy to support such a widespread affluence in a sustainable manner? In previous papers i have argued that even without any major breakthroughs in science and technology, an industrialized, sustainable and affluent world can be created within the next half century, but only if breeder nuclear power is widely used throughout the world. In this paper i elaborate on the question of future availability of some basic natural resources. 18 refs. 3 figs. 1 tabs

  10. The future of nuclear power in Mexico

    International Nuclear Information System (INIS)

    Morales, A.A.

    1980-01-01

    The future of nuclear power in Mexico shows interesting aspects: the nuclear power is the source of energy that can supply large proportions of energy, that the country needs; the Kw/h of nuclear power is the most economic energy; the installation of 20 nucleoelectric plants will grant future jobs, the associated nuclear industry can be nationally integrated in the natural uranium cycle. (author)

  11. Future nuclear power generation

    International Nuclear Information System (INIS)

    Mosbah, D.S.; Nasreddine, M.

    2006-01-01

    The book includes an introduction then it speaks about the options to secure sources of energy, nuclear power option, nuclear plants to generate energy including light-water reactors (LWR), heavy-water reactors (HWR), advanced gas-cooled reactors (AGR), fast breeder reactors (FBR), development in the manufacture of reactors, fuel, uranium in the world, current status of nuclear power generation, economics of nuclear power, nuclear power and the environment and nuclear power in the Arab world. A conclusion at the end of the book suggests the increasing demand for energy in the industrialized countries and in a number of countries that enjoy special and economic growth such as China and India pushes the world to search for different energy sources to insure the urgent need for current and anticipated demand in the near and long-term future in light of pessimistic and optimistic outlook for energy in the future. This means that states do a scientific and objective analysis of the currently available data for the springboard to future plans to secure the energy required to support economy and welfare insurance.

  12. Nuclear power - assures the energy future. V. 2

    International Nuclear Information System (INIS)

    1982-01-01

    Papers presented at the conference surveyed the present status of nuclear projects and future nuclear power plans, the export of electricity and technology, Canada's nuclear industry, and innovative nuclear opportunities

  13. Union innovation in Ontario's nuclear industry

    International Nuclear Information System (INIS)

    MacKinnon, D.

    2003-01-01

    Over the last decade the Power Worker's Union (PWU) has embarked on a number of innovative approaches that have provided significant benefit to the nuclear industry. These include advanced labour relations approaches, equity participation and groundbreaking skills training initiatives. This presentation outlines these and other initiatives in the context of the union's view of the nuclear generation industry's future. (author)

  14. US nuclear policy and business trend of Japan's nuclear industries

    International Nuclear Information System (INIS)

    Matsuo, Yuji

    2010-01-01

    As several countries in the east-Asia and middle-east area have been taking an increasing interest in the deployment of nuclear power generation, Japan's nuclear industries have promoted international business activities including the success in the bid of second nuclear power plants in Vietnam. While there are plans for more than thirty of new reactors in the US, the lifetime extension of existing aged reactors, development of non-existing natural gas and trend of greenhouse gases reduction measures have dampened these plans and probably most of new units will not start construction by 2030. This article reviewed the details of US's new nuclear power introduction, trend of recent government's policies, future perspective of nuclear power construction and business trend of Japan's nuclear industries. Japan's industries should be flexible regarding nuclear power as one option to realize low-carbon society. (T. Tanaka)

  15. Nuclear energy and its future

    International Nuclear Information System (INIS)

    Cook, D.J.

    1990-01-01

    The status of nuclear power in the world and its future are briefly discussed. It is shown that nuclear power capacity is increasing in the Asian and Pacific rim region and that new reactor designs, with the increased emphasis on safety and standardisation, could make nuclear power a more acceptable option in the future. The author also outlines the Australian Nuclear Science and Technology Organization wide range of skills and facilities which are bringing the benefits of nuclear science and technology to Australia. These include: the development of Synroc as an advanced second generation waste management; production of radiotracers for biomedical researches and environmental problems; application of gamma irradiation in industry and of ion beam analysis in biology, archaeology, semi-conductor and environmental science. 2 tabs

  16. The Canadian nuclear power industry. Background paper

    International Nuclear Information System (INIS)

    Nixon, A.

    1993-12-01

    Nuclear power, the production of electricity from uranium through nuclear fission, is by far the most prominent segment of the nuclear industry. The value of the electricity produced, $3.7 billion in Canada in 1992, far exceeds the value of any other product of the civilian nuclear industry. Power production employs many more people than any other sector, the capital investment is much greater, and nuclear power plants are much larger and more visible than uranium mining and processing facilities. They are also often located close to large population centres. This paper provides an overview of some of the enormously complex issues surrounding nuclear power. It describes the Canadian nuclear power industry, addressing i particular its performance so far and future prospects. (author). 1 tab

  17. The Canadian nuclear power industry. Background paper

    Energy Technology Data Exchange (ETDEWEB)

    Nixon, A [Library of Parliament, Ottawa, ON (Canada). Science and Technology Div.

    1993-12-01

    Nuclear power, the production of electricity from uranium through nuclear fission, is by far the most prominent segment of the nuclear industry. The value of the electricity produced, $3.7 billion in Canada in 1992, far exceeds the value of any other product of the civilian nuclear industry. Power production employs many more people than any other sector, the capital investment is much greater, and nuclear power plants are much larger and more visible than uranium mining and processing facilities. They are also often located close to large population centres. This paper provides an overview of some of the enormously complex issues surrounding nuclear power. It describes the Canadian nuclear power industry, addressing i particular its performance so far and future prospects. (author). 1 tab.

  18. Future financial liabilities of nuclear activities

    International Nuclear Information System (INIS)

    1996-01-01

    This report deals with future financial liabilities arising from nuclear activities, in particular electricity generation. Future financial liabilities are defined as costs which an organisation or company is expected to meet beyond some five years as a consequence of its current and past activities. The study provides a comprehensive picture on policies for recognizing and funding future financial liabilities arising from nuclear activities and their implementation schemes in Nea Member countries. Mechanisms for reporting and funding future financial liabilities are described, analysed and compared. The report offers some findings, conclusions and recommendations for consideration by Member countries. The nuclear activities considered in the report include nuclear research and development, nuclear industry sectors such as uranium mining and milling, conversion and enrichment, nuclear fuel fabrication, nuclear power plant operation and maintenance, and radioisotopes production. Future financial liabilities arising from these activities cover management and disposal of radioactive wastes, reprocessing of spent fuels when applicable and decommissioning of facilities at the end of their life time. 12 refs., 14 figs., 16 tabs

  19. Italian nuclear power industry after nuclear power moratorium: Current state and future prospects

    International Nuclear Information System (INIS)

    Adinolfi, R.; Previti, G.

    1992-01-01

    Following Italy's nuclear power referendum results and their interpretation, all construction and operation activities in the field of nuclear power were suspended by a political decision with consequent heavy impacts on Italian industry. Nevertheless, a 'nuclear presidium' has been maintained, thanks to the fundamental contribution of activities abroad, succeeding in retaining national know-how and developing the new technologies called for the new generation of nuclear power plants equipped with intrinsic and/or passive reactor safety systems

  20. Future of the UK nuclear industry...and a review of the principal alternatives

    International Nuclear Information System (INIS)

    1993-01-01

    A report on the 'Future of the UK Nuclear Industry and a Review of the Principal Alternatives' was published by the Institution in December 1992. It was circulated widely including the major participants in the UK power industry and its fuel suppliers, the professional institutions, engineering consultancies in the field, academics, local and national government, opposition politicians, government departments, agencies and individuals known to be involved. Criticisms and comments on the report have been received from a considerable number of such sources. These have been collected together and edited as a supplement to the original report which considered not only nuclear power but also power generation by burning coal, oil and gas, the prospects for hydroelectric power, wind power, tidal power waste, incineration and other renewables. The comments and contributions are listed in simple numerical order of paragraphs, against the chapter concerned, for easy identification and reference. Energy Board comments are indicated clearly throughout. They are interposed mainly to offer a linkage throughout, with further technical comment restricted severely. (Author)

  1. Political electricity: What future for nuclear energy

    International Nuclear Information System (INIS)

    Price, T.

    1993-01-01

    Political Electricity first reviews the history of nuclear power development in nine countries (USA, France, Japan, UK, West Germany, Sweden, Italy, Switzerland, Australia). Second the book analyses major issues shaping the future of the industry: nuclear power economincs, nuclear hazards, alternative energy economics, and greenhouse gas constraints

  2. Future gripper needs in nuclear environments

    International Nuclear Information System (INIS)

    Ham, A.C. van der; Holweg, E.G.M.; Jongkind, W.

    1993-01-01

    This paper is concerned with the requirements of teleoperated grippers for work in hazardous situations and nuclear environments. A survey among users in the nuclear industry was performed by means of questionnaires of the present grippers in use and the future gripper needs. The survey covers reliability, tasks to be done, object properties, accuracy, environmental requirements, required grasps, mechanical and sensorial requirements. The paper will present the proposal for a future gripper. (author)

  3. Future Industrialization of the World and the Necessity of Nuclear Power, Part II: How Limited are Resources?

    International Nuclear Information System (INIS)

    Jovanovich, Jovan V.

    1997-01-01

    Will the future world be forever divided into an industrial, developed and 'rich' on one side, and the primitive, undeveloped, and poor on the other? Is an industrial, affluent and sustainable world of 10-15 billion people owning 5-10 billion cars physically possible to exist? Can the world have enough food, minerals and energy to support such a widespread affluence in a sustainable manner? In previous papers I have argued that even without any major breakthroughs in science and technology, an industrialized, sustainable and affluent world can be created within the next half a century to a century, but only if breeder nuclear power is widely used throughout the world. In this paper I elaborate on the question of future availability of some basic natural resources. (author)

  4. Process industry properties in nuclear industry

    International Nuclear Information System (INIS)

    Zheng Hualing

    2005-01-01

    In this article the writer has described the definition of process industry, expounded the fact classifying nuclear industry as process industry, compared the differences between process industry and discrete industry, analysed process industry properties in nuclear industry and their important impact, and proposed enhancing research work on regularity of process industry in nuclear industry. (authors)

  5. Development and issues of nuclear industry in Taiwan

    International Nuclear Information System (INIS)

    Kuangchi Liu

    1994-01-01

    Industrial and economic developments in Taiwan have achieved a so-called 'miracle' in the last decades. Endeavors by the private enterprise, prudent planning by the government, and the devoted efforts by the diligent and creative labor forces have been credited jointly with the result. To develop a sustainable nuclear industry in support of an efficient and safe power generation and other applications of nuclear energy in Taiwan, continuing efforts from the private industry, government and each individual of the nuclear industry will be required. In this paper, milestones of the past and major issues for future developments will be discussed

  6. Long-Term Nuclear Industry Outlook - 2004

    Energy Technology Data Exchange (ETDEWEB)

    Reichmuth, Barbara A.; Wood, Thomas W.; Johnson, Wayne L.

    2004-09-30

    The nuclear industry has become increasingly efficient and global in nature, but may now be poised at a crossroads between graceful decline and profound growth as a viable provider of electrical energy. Predicted population and energy-demand growth, an increased interest in global climate change, the desire to reduce the international dependence on oil as an energy source, the potential for hydrogen co-generation using nuclear power reactors, and the improved performance in the nuclear power industry have raised the prospect of a “nuclear renaissance” in which nuclear power would play an increasingly more important role in both domestic and international energy market. This report provides an assessment of the role nuclear-generated power will plan in the global energy future and explores the impact of that role on export controls.

  7. Future development of nuclear energy systems

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    2001-03-01

    Nuclear energy development in Japan has passed about 30 years, and reaches to a step to supply about 35 % of total electric power demand. However, together with globalization of economic and technical development, its future progressing method is required for its new efforts. Among such conditions, when considering a state of future type nuclear energy application, its contribution to further environmental conservation and international cooperation is essential, and it is required for adoption to such requirement how it is made an energy source with excellent economics.The Research Committee on 'Engineering Design on Nuclear Energy Systems' established under recognition in 1998 has been carried out some discussions on present and future status of nuclear energy development. And so forth under participation of outer specialists. Here were summarized on two year's committee actions containing them and viewpoints of nuclear industries, popularization of nuclear system technology, and so forth. (G.K.)

  8. The INSTN trains the future professionals of nuclear industry

    International Nuclear Information System (INIS)

    Correa, P.

    2017-01-01

    The INSTN (Institute for Nuclear Sciences and Nuclear Technologies) is the applied school in nuclear technologies that has been present for 60 years for specialized training and vocational training. The integration of numerical technologies has allowed INSTN to adapt its way of teaching and to overcome difficulties like distances and to propose for instance practical exercises on the ISIS experimental reactor through the web for foreign graduate schools. The INSTN has realized its first SPOC (Small Private Online Course) and is preparing 2 MOOC (Massive Open Online Course). Since 2016, the INSTN has become 1 of the 2 training centers appointed as 'collaborating center' by the IAEA in the field of nuclear technologies and their industrial and radio-pharmaceutical applications. (A.C.)

  9. Future for nuclear data research. Human resources

    International Nuclear Information System (INIS)

    Baba, Mamoru

    2006-01-01

    A comment is given on the problem of human resources to support the future nuclear data activity which will be indispensable for advanced utilization of nuclear energy and radiations. Emphasis is put in the importance of the functional organization among the nuclear data center (JAEA), industries and universities for provision of human resources. (author)

  10. Present and Future of Nuclear Robotics

    International Nuclear Information System (INIS)

    Bielza Ciaz-Caneja, M.; Carmena Servet, P.; Gomez Santamaria, J.; Gonzalez Fernandez, J.; Izquierdo Mendoza, J.A.; Linares Pintos, F.; Martinez Gonzalez; Muntion Ruesgas, A.; Serna Oliveira, M.A.

    1997-01-01

    New technologies have increased the use of robotic systems in fields other than Industry. As a result, research and developers are focusing their interest in concepts like Intelligent Robotics and Robotics in Services. This paper describes the use of Robotics in Nuclear facilities, where robots can be used to protect workers in high radiation areas, to reduce total worker exposure and to minimise downtime. First, the structure of robot systems is introduced and the benefits of nuclear robots is presented. Next, the paper describes some specific nuclear applications and the families of nuclear robots present in the market. After that, a section is devoted to Nuclear Robotics in Spain, with emphasis in some of the developments being carried out at present. Finally, some reflections about the future of robots in Nuclear Industry are offered. (Author) 18 refs

  11. The future of the civil nuclear industry: the challenge of nuclear wastes

    International Nuclear Information System (INIS)

    2001-01-01

    This research thesis first gives an overview of the nuclear waste processing and storage in France (reasons and future of this political choice, legal framework, storage means and sites, weaknesses of waste storage). Then it comments various aspects of the processing of foreign nuclear wastes in France: economy and media impact, law and contracts, waste transport, temporary storage in France

  12. Future developments in nuclear power

    International Nuclear Information System (INIS)

    Phillips, G.J.

    1978-12-01

    To date, the peaceful application of nuclear energy has been largely restricted to the generation of electricity. Even with such an application there is potential for wider use of the nuclear energy generated in providing heat for dwellings, control of climate for the production of vegetables and providing warm water for fish and lobster farming. It is possible to envisage specific applications of nuclear power reactors to process industries requiring large blocks of energy. These and other future developments are reviewed in this report. (author)

  13. Nuclear industry prospects: A Canadian perspective

    International Nuclear Information System (INIS)

    Morden, Reid

    1995-01-01

    Canada, with its proven, safe and versatile CANDU reactor is well poised for the second half-century of nuclear fission. Canada's nuclear pedigree goes back to the turn-of-the-century work of Ernest Rutherford in Montreal. This year, Canada's nuclear industry celebrates the 50th anniversary of the start-up of its first research reactor at Chalk River. Last year, the pioneering work of Bert ram Blockhouse in Physics was honoured with a Nobel Prize. Future international success for the nuclear industry, such as has been achieved here in Korea, depends on continued cooperative and collaborative team work between the public and private sectors, continued strong research and development backing by the government, and new strategic partnerships. The biggest challenge is financing for the emerging markets. The brightness or dimness of future prospects are relative to the intensity of the lessons learned from history. In Canada we have a fairly long nuclear pedigree, It goes back almost a century to 1898, when Ernest Rutherford set up a world centre at McGill University in Montreal for research into the structure of the atom and into radioactivity

  14. South Korea's nuclear fuel industry

    International Nuclear Information System (INIS)

    Clark, R.G.

    1990-01-01

    March 1990 marked a major milestone for South Korea's nuclear power program, as the country became self-sufficient in nuclear fuel fabrication. The reconversion line (UF 6 to UO 2 ) came into full operation at the Korea Nuclear Fuel Company's fabrication plant, as the last step in South Korea's program, initiated in the mid-1970s, to localize fuel fabrication. Thus, South Korea now has the capability to produce both CANDU and pressurized water reactor (PWR) fuel assemblies. This article covers the nuclear fuel industry in South Korea-how it is structures, its current capabilities, and its outlook for the future

  15. Strategy for a non-nuclear future

    International Nuclear Information System (INIS)

    Carlson, R.; Freedman, D.; Scott, R.

    1979-01-01

    The need for nuclear power may not be as great as the electric power industry has led the nation to believe, according to the authors. They argue that 64 of the 72 nuclear plants operating in the United States could be shut down immediately if the existing non-nuclear capacity of the electric power industry were fully utilized; and the remaining 8 plants could be phased out within a few years. They cite already-available alternative power sources that could guarantee the additional energy needed for a non-nuclear future. They state that the transition to a nuclear-free electric system could be implemented with little or no increased expense to consumers or taxpayers; that, in fact, elimination of all nuclear plants might actually be cheaper, given the rapid rise in nuclear construction costs as more and more new flaws are discovered or old ones acknowledged. The authors feel that environmental risks of nuclear power plant operation could be eliminated in exchange for a small, temporary increase in air pollution from coal- and oil-fired plants. The increase in sulfur dioxide and particulate pollution could be offset within several years by an accelerated program to install flue-gas scrubbing equipment. Suggestions for meeting a projected shortfall in future capacity are given. The authors also touch lightly on institutional barriers that would have to be overcome before phasing out nuclear power. 4 figures, 4 tables

  16. Nuclear safety. Summary of the intermediate report of the special joint parliamentary committee on nuclear safety, present and future outlook of the nuclear industry

    International Nuclear Information System (INIS)

    Birraux, Claude; Bataille, Christian; Sido, Bruno

    2011-09-01

    Following the Fukushima events, the Parliamentary Office for Scientific and Technological Assessment (OPECST) was officially asked at the end of March 2011 - jointly by the National Assembly Bureau and by the Senate Committee on the economy, sustainable development, territorial and regional planning - to carry out a study on nuclear safety, and the present and future outlook of the nuclear industry. To carry out this study, seven members of the National Assembly economic affairs and sustainable development committees were also involved, as well as eight members of the Senate Committee on the economy, sustainable development, territorial and regional planning. The first part of this study, devoted to nuclear safety, was completed on 30 June 2011 by the publication of an intermediate report. This report assembles and summarises the information collected during six public hearings and seven trips to nuclear sites. France is one of the nuclear countries where the management of safety is both the most demanding and the most transparent. In this respect, the independence of the Safety Authority is the best guarantee of strictness in the safety field and the existence of pluralistic bodies, such as the Local Information Committees, is the best guarantee of the transparency of safety. But no country can pride itself on being totally safe from a natural disaster of an unexpected scale. The French nuclear industry must therefore ratchet up one more notch its investment in safety and strengthen the means of university research. It must imagine events of even greater intensity, cascading accidents, with interactions between neighbouring industrial sites. Investment must be made by placing safety requirements above any economic consideration and in strict compliance with the specifications of public authorities supervising safety. (authors)

  17. Improving Industry-Relevant Nuclear-Knowledge Development through Special Partnerships

    International Nuclear Information System (INIS)

    Cilliers, A.

    2016-01-01

    Full text: South African Network for Nuclear Education Science and Technology (SAN NEST) has the objective to develop the nuclear education system in South Africa to a point where suitably qualified and experienced nuclear personnel employed by nuclear science and technology programmes in South Africa are predominantly produced by the South African education system. This is done to strengthen the nuclear science and technology education programmes to better meet future demands in terms of quality, capacity and relevance. To ensure sustainable relevance, it is important to develop special partnerships with industry. This paper describes unique partnerships that were developed with nuclear industry partners. The success of these partnerships has ensured more industry partners to embrace the model which has proven to develop relevant knowledge, support research and provide innovative solutions for industry. (author

  18. Nuclear industry after the Fukushima accident

    International Nuclear Information System (INIS)

    Branche, Thomas; Billes-Garabedian, Laurent; Salha, Bernard; Behar, Christophe; Dupuis, Marie-Claude; Labalette, Thibaud; Lagarde, Dominique; Planchais, Bernard; West, Jean-Pierre; Stubler, Jerome; Lancia, Bruno; Machenaud, Herve; Einaudi, Andre; Anglaret, Philippe; Brachet, Yves; Bonnave, Philippe; Knoche, Philippe; Gasquet, Denis

    2013-01-01

    This special dossier about the situation of nuclear industry two years after the Fukushima accident comprises 15 contributions dealing with: the nuclear industry two years after the Fukushima accident (Bernard Salha); a low-carbon electricity at a reasonable cost (Christophe Behar); nuclear engineering has to gain even more efficiency (Thomas Branche); how to dispose off the most radioactive wastes (Marie-Claude Dupuis, Thibaud Labalette); ensuring the continuation for more than 40 years onward (Denis Gasquet); developing and investing in the future (Philippe Knoche); more than just signing contracts (Dominique Lagarde); immersed power plants, an innovative concept (Bernard Planchais); R and D as a source of innovation for safety and performances (Jean-Pierre West); dismantlement, a very long term market (Jerome Stubler, Bruno Lancia); a reference industrial model (Herve Machenaud); recruiting and training (Andre Einaudi); a diversity of modern reactors and a world market in rebirth (Philippe Anglaret); an industrial revolution is necessary (Yves Brachet); contracts adapted to sensible works (Philippe Bonnave)

  19. Preparedness for Romanian Future Nuclear Industry - Methods to Attract Young Professionals

    International Nuclear Information System (INIS)

    Zaharov, Ionut; Goicea, Andrei

    2008-01-01

    'The management of nuclear knowledge has emerged as a growing challenge in recent years. The need to preserve, and transfer nuclear knowledge is compounded by recent trends such as ageing of nuclear-related field and a threat of loosing accumulated knowledge' as per IAEA said. Knowledge transfer is a very important task all over the word. In Romania we have some extra problems to attract young people to join us after graduation, to work in the nuclear field. Presently, Romania has two Candu Reactors in operation and our Government, decided to complete another two Nuclear Power Plants (two Candu 6 Reactors). As a result, more young engineers will be necessary to join us. We have to be prepared to assure that all the students know our needs and their possibilities to work in the nuclear field. The Prime Minister of Romania declared that 'is necessary to find a different site to build another Nuclear Power Plants in Romania'. That means other young engineers and also good young professionals must join us. The students must know their possibilities in the field after graduation. Romanian Association 'Nuclear Energy' - Young Generation must help nuclear industry in order to find solutions to attract in the nuclear field good quality people. A very alarmist statistic shows that in Romania, after graduation, most of the students prefer to change the domain, or prefer to work abroad. The reasons are various, but the most important is because the jobs for engineers are not paid well. The second most important reason is that, right now, in Romania the jobs offer for young engineers isn't various. What they do not know is that in the future possibilities in Romania will be more attractive for them and they will have well paid jobs. In this paper we present our strategies and methods used to communicated with students, and also what kind of problems has a young employer in Romania. Our mission is to convince them that we need them to work with us. We know that our results in

  20. Privatisation of the UK's nuclear power industry: nuclear's triple challenge

    International Nuclear Information System (INIS)

    Fraser, W.R.I.

    1997-01-01

    At the British Nuclear Congress in December 1996, Lord Fraser of Caryllie, then UK energy minister, set out the three key issues the nuclear industry must tackle for a successful future: (1) increased competition from other energy sources, (2) a growing world market for its skills and (3) a continuing tough regulatory regime. Nuclear power, with electricity generated in the UK rising to 25%, has responded well to competition from other energy sources, and also to the further competition generated by privatisation which has already generated benefits for the public. As other countries with nuclear programmes diversify and upgrade their technology this will create new export opportunities for Britain over and above those already in existence, notably by BNFL in Japan. Other areas that Britain has to offer relate to safety improvements, notably in eastern Europe, and decommissioning, in which Magnox Electric is one of the few operators in the world with experience in decommissioning a full scale commercial reactor. The regulatory framework for the nuclear industry will continue to be as rigorous as ever, but, however the industry is structured, it should be noted that commercial success and continued safe operations are inextricably linked. The industry must operate within the framework of the development of international treaties and agreements in the nuclear field. The Government will continue to take a close interest in the safety, security and prosperity of the nuclear industry, and help Britain as a whole to be a successful and influential player in the international nuclear community. (UK)

  1. Nuclear regulation in Australia - future possibilities

    International Nuclear Information System (INIS)

    Carlson, J.; Bardsley, J.

    1997-01-01

    Australia's current nuclear regulatory arrangements reflect two major factors: that we are a federation, with a constitutional division of powers between the Commonwealth and the States, and that we have no nuclear industry, other than uranium mining. Australia's only nuclear facilities are operated by a Commonwealth instrumentality, ANSTO. Current Commonwealth regulatory arrangements are a response to international treaty commitments -principally the NPT (Treaty on the Non-Proliferation of Nuclear Weapons) -and to the commencement of commercial uranium mining and export in the late 1970's. Although at present no nuclear industry activities, other than mining, are in prospect, this might not always be the case, and with the establishment of ARPANSA (the Australian Radiation Protection and Nuclear Safety Agency) it is timely to give some thought to regulatory arrangements which might be appropriate to Australia's future circumstances. This paper will discuss the regulation activities relating to the nuclear fuel cycle , i e activities involved with the production and use of nuclear materials (uranium, thorium and plutonium) for the generation of energy through nuclear fission

  2. Nuclear engineering career path - Past, present and future in Europe

    International Nuclear Information System (INIS)

    Dragusin, O.; Goicea, A.

    2005-01-01

    Full text: Today's nuclear workforce is growing older. The nuclear industry is at a turning point, mainly when we try to evaluate future needs. The paper tries to explore what is the present status of nuclear engineering career in Europe and which are the future trends. Today's students are either unaware of, or indifferent to, nuclear power. But it is not their fault - after all, an entire generation has grown to adulthood since the Three Miles Island and Chernobyl accidents. If their parents' views about nuclear power have been changed after these unhappy accidents, today's teens appear to be almost ambivalent toward it. What could be done to attract younger to the nuclear field in Europe? Probably the main key is in education and even more in a positive image-making of nuclear industry. Creation of more possibilities for gaining work experience and an improvement of economical situation and successful completion of reforms in the industry could attract young people. Political viewpoint is very important, if we consider that people in general thinks that nuclear will be phased out within a short future. A good advertising about job opportunities to come is another factor that plays a role in information of young generation. The paper provides information about university programmes in nuclear engineering in European countries. (authors)

  3. Nuclear energy, future of ecology?

    International Nuclear Information System (INIS)

    Comby, B.

    1995-01-01

    This work can surprise; because it is said that nuclear energy is the only one that will allow to satisfy the energy needs of the planet by reducing the pollution. It gives answers on: Chernobyl accident, the existence of natural radioactivity, the comparison between natural radioactivity and medical, military and industrial irradiation, the pollution of our environment, the petroleum whom reserves are going to decrease, the advantages of the 'clever' nuclear and the disadvantages of the 'dustbin' nuclear, why some of ecologists are favourable to the nuclear, the effects of radiations on health, the foods irradiation, the wastes processing and the future of our planet. (N.C.)

  4. Quantity and quality in nuclear engineering professional skills needed by the nuclear power industry

    International Nuclear Information System (INIS)

    Slember, R.J.

    1990-01-01

    This paper examines the challenge of work force requirements in the context of the full range of issues facing the nuclear power industry. The supply of skilled managers and workers may be a more serious problem if nuclear power fades away than if it is reborn in a new generation. An even greater concern, however, is the quality of education that the industry needs in all its future professionals. Both government and industry should be helping universities adapt their curricula to the needs of the future. This means building a closer relationship with schools that educate nuclear professionals, that is, providing adequate scholarships and funding for research and development programs, offering in-kind services, and encouraging internships and other opportunities for hands-on experience. The goal should not be just state-of-the-art engineering practices, but the broad range of knowledge, issues, and skills that will be required of the nuclear leadership of the twenty-first century

  5. The European nuclear future

    Energy Technology Data Exchange (ETDEWEB)

    Noon, F [Energy Industries, Canterbury, Kent (United Kingdom)

    1990-06-01

    The Nuclear Industry, both reactor manufacturers and generating companies, have a responsibility to make the case for Nuclear Energy in very positive terms if Western Europe is to avoid the economic trap of serious power deficits in the early part of the next century. Significant progress will not be made without public consent, and the public must be made aware of the real needs for the future: A Commitment to Safe Nuclear Energy Utilising Economical Designs Based Upon Proven Technology. However some re-thinking of accepted energy philosophy is also called for, and the speculation here as to what could happen in Europe over the next thirty years, is one possible scenario. (author)

  6. The European nuclear future

    International Nuclear Information System (INIS)

    Noon, F.

    1990-01-01

    The Nuclear Industry, both reactor manufacturers and generating companies, have a responsibility to make the case for Nuclear Energy in very positive terms if Western Europe is to avoid the economic trap of serious power deficits in the early part of the next century. Significant progress will not be made without public consent, and the public must be made aware of the real needs for the future: A Commitment to Safe Nuclear Energy Utilising Economical Designs Based Upon Proven Technology. However some re-thinking of accepted energy philosophy is also called for, and the speculation here as to what could happen in Europe over the next thirty years, is one possible scenario. (author)

  7. The future of nuclear energy. Safety and nuclear power plants. Contribution of engineering companies

    International Nuclear Information System (INIS)

    Garcia Rodriguez, A.

    1995-01-01

    Risk, its consideration and its acceptance or rejection, are parameters which to a large extent are independent and sometimes difficult to interrelate. Nuclear energy, unlike motoring or civil aviation, has not gained sufficient public acceptance, this despite the fact that the risk to population is by far the least of the three. It is therefore necessary to continue with its improvement is an attempt to create the same confidence in the nuclear industry, as society has placed in civil aviation. Improvement in future nuclear power plants must be a combination of improved safety and a reduction in capital investment. This objective can only be reached through standardization and international cooperation. Engineering has a very important part to play in the standardization process. An increase in engineering input during the design, construction, operation and maintenance phases of future nuclear power plants, and the application of increasingly sophisticated analysis and management tools are anticipated. Nevertheless, the financial impact on the cost of each plant will fall as a result of increased input spread throughout the range of standard plants. Our current Advanced Reactor Power Plant Programme enables the Spanish industry to participate actively in the creation of future standards nuclear power plants. Having a presence in selected engineering activities, which guarantees access to the state of the art in this area, is one of our priorities, since it will facilitate the presence of the rest of the industry in future projects. If the objectives described above are to be reached, the present involvement of the spanish industry in this programme must be maintained in the medium and long term. (Author)

  8. JAIF formulates policy for strengthening foundation of nuclear industry

    International Nuclear Information System (INIS)

    Anon.

    1986-01-01

    With recognition that conditions surrounding the nuclear industry are becoming severe with the slowdown in the growth of the Japanese economy, the Japan Atomic Industrial Forum has been discussing ways and means of strengthening the foundations of the nuclear industry. A subcommittee of the Power Reactor Development Committee has been formed. It comprizes two divisions. The first division focused on economic and social prospects for the future and other basic questions. The second division dealt with specific problems viewed from the position of the nuclear quipment supply industry and measures to resolve them. The report was prepared based on the studies done by the two divisions, and focusing on the strengthening of the basis of the nuclear industry through the year 2010. The report estimates that construction of nuclear power plants will be less than 2 units a year in the coming five year period, and will continue at about 2 units a year until about the year 2000. From this outlook, it discusses the work facing the nuclear industry and the steps to be taken to reduce nuclear power generation costs, efficient research and development and the promotion of international cooperation. The report covers four sections: the position of nuclear power development in the national economy; the present state and tasks of the nuclear industry and the nuclear equipment supply industry; measures for maintaining and strengthening the foundations of the nuclear industry, and the tasks to be done. (Nogami, K.)

  9. The current status of Chinese nuclear power industry and its future

    International Nuclear Information System (INIS)

    Lu Daogang

    2010-01-01

    During the past 30 years, economy of China has being grown strongly. Even in the year 2009, when the world was hit by the financial crisis, China still kept the 8.7% growth rate. GDP of China has reached 4222G USD. This figure makes China to become the third economic giant in the world. All of the world are focusing on the high-speed development of economy in China; meanwhile they also pay much attention on the energy consumption in China. In addition, as one of the policy to keep the stable supply of the energy and to cut off the drain of CO 2 , China now are building more and more nuclear power stations. Many developed countries are very interested in the big market. Some have already joined in the construction of nuclear power stations in China, while some may concern about the supply of the nuclear fuel, as well as nuclear safety in China. The present paper will give a close-up view on China status of the energy, especially the nuclear power industry. It is expected that the international community could have deeper and more complete understanding on the nuclear industry in China, moreover cooperate with China to improve the peace and safe utilization of nuclear energy for the sustainable development of the world. (author)

  10. The future of nuclear energy. A perspective on nuclear power development

    International Nuclear Information System (INIS)

    Sackett, J.I.

    2000-01-01

    Nuclear power has made a huge contribution to the quality of life for millions, providing electrical power without emitting green house gasses to the environment. Its safety record is sterling when compared to any major industrial undertaking by any measure. Yet the much of the public and many policy makers remain skeptical of nuclear power, if not down right frightened of it or opposed to it. 'The Future of Nuclear Power' examines what must be achieved by nuclear power itself to attain public support. Dr. John Sackett, a world leader in nuclear reactor safety, examines the four areas which must be addressed as this technology moves into the future proliferation of weapons material; waste management; safety; and, economics and concludes that the key to success in each of these areas is United States leadership in determining how nuclear power is developed and applied

  11. Future Remains: Industrial Heritage at the Hanford Plutonium Works

    Science.gov (United States)

    Freer, Brian

    This dissertation argues that U.S. environmental and historic preservation regulations, industrial heritage projects, history, and art only provide partial frameworks for successfully transmitting an informed story into the long range future about nuclear technology and its related environmental legacy. This argument is important because plutonium from nuclear weapons production is toxic to humans in very small amounts, threatens environmental health, has a half-life of 24, 110 years and because the industrial heritage project at Hanford is the first time an entire U.S. Department of Energy weapons production site has been designated a U.S. Historic District. This research is situated within anthropological interest in industrial heritage studies, environmental anthropology, applied visual anthropology, as well as wider discourses on nuclear studies. However, none of these disciplines is really designed or intended to be a completely satisfactory frame of reference for addressing this perplexing challenge of documenting and conveying an informed story about nuclear technology and its related environmental legacy into the long range future. Others have thought about this question and have made important contributions toward a potential solution. Examples here include: future generations movements concerning intergenerational equity as evidenced in scholarship, law, and amongst Native American groups; Nez Perce and Confederated Tribes of the Umatilla Indian Reservation responses to the Hanford End State Vision and Hanford's Canyon Disposition Initiative; as well as the findings of organizational scholars on the advantages realized by organizations that have a long term future perspective. While these ideas inform the main line inquiry of this dissertation, the principal approach put forth by the researcher of how to convey an informed story about nuclear technology and waste into the long range future is implementation of the proposed Future Remains clause, as

  12. Technological and social change and the future of nuclear power

    International Nuclear Information System (INIS)

    Douglas, H.

    1988-01-01

    Over the past decade and a half, the nuclear power industry has experienced growing public opposition. Underlying the nuclear industry's problems is a very fundamental anti-technology outlook by the public - visibly apparent in the environmental movement - that not only affects nuclear power but business in general. Is this anti-technology attitude of the public and media writers a passing phase, or will it wane and yield to a positive attitude toward technology? This paper discusses historical, sociological and technological change in the Western industrial world, and how changing attitudes might affect nuclear power in the future. (author)

  13. Preparedness for Romanian Future Nuclear Industry - Methods to Attract Young Professionals

    Energy Technology Data Exchange (ETDEWEB)

    Zaharov, Ionut; Goicea, Andrei [Nuclearelectrica Co, 65 Polona street, Bucharest (Romania)

    2008-07-01

    'The management of nuclear knowledge has emerged as a growing challenge in recent years. The need to preserve, and transfer nuclear knowledge is compounded by recent trends such as ageing of nuclear-related field and a threat of loosing accumulated knowledge' as per IAEA said. Knowledge transfer is a very important task all over the word. In Romania we have some extra problems to attract young people to join us after graduation, to work in the nuclear field. Presently, Romania has two Candu Reactors in operation and our Government, decided to complete another two Nuclear Power Plants (two Candu 6 Reactors). As a result, more young engineers will be necessary to join us. We have to be prepared to assure that all the students know our needs and their possibilities to work in the nuclear field. The Prime Minister of Romania declared that 'is necessary to find a different site to build another Nuclear Power Plants in Romania'. That means other young engineers and also good young professionals must join us. The students must know their possibilities in the field after graduation. Romanian Association 'Nuclear Energy' - Young Generation must help nuclear industry in order to find solutions to attract in the nuclear field good quality people. A very alarmist statistic shows that in Romania, after graduation, most of the students prefer to change the domain, or prefer to work abroad. The reasons are various, but the most important is because the jobs for engineers are not paid well. The second most important reason is that, right now, in Romania the jobs offer for young engineers isn't various. What they do not know is that in the future possibilities in Romania will be more attractive for them and they will have well paid jobs. In this paper we present our strategies and methods used to communicated with students, and also what kind of problems has a young employer in Romania. Our mission is to convince them that we need them to work

  14. Future industrial issues for ANDRA

    International Nuclear Information System (INIS)

    Auverlot, D.

    1998-01-01

    ANDRA manages industrially 90 % in volume of radioactive waste produced in France. This is short life waste of low and medium activity. In compliance with the law of 1991, which transformed it into a public body with an industrial and commercial character, ANDRA also heads aspect 2 of the research into the 10 % of remaining highly active long life waste, by attempting to evaluate the possibilities of storing it in deep geological layers, either reversibly or irreversibly. The industrial issues of the future for ANDRA can be in different forms, following three meeting of major importance for ANDRA and for the producers of nuclear waste. These are: the meeting of 2006, at the end of which, in compliance with the law of 1991, the Parliament must re-examine the question of the management of highly active, long life waste; the renewal of nuclear facilities; the future meeting concerning future generations. However, whatever these different stage and whatever the different types of waste considered, the single and major challenge with which ANDRA is confronted is to prove that it is capable of providing a sure danger-free management of all radioactive waste. In this context, it appears necessary, today, to intensify research into aspects 1 and 3 of the law of 1991, to respect the balance of the three aspects. This in fact constitutes an essential pledge of the credibility of the procedure instituted by the law: at present, to clearly specify the research into surface storing in the short or long terms; building the three laboratories, the authorization for which has been subject to public inquiry. And also to keep, for 2006, the largest possible choice of the geological environment. (author)

  15. The impact of deregulation on the US nuclear industry

    Energy Technology Data Exchange (ETDEWEB)

    Baratta, A.J. [Pennsylvania State Univ., Nuclear Safety Center, University Park, PA (United States)

    2001-07-01

    In the United States, the electric utility industry is undergoing a dramatic shift away from a tightly regulated monopoly to a free market system. The impact on the nuclear utility industry of deregulation coupled with recent changes in the nuclear regulatory environment has had a dramatic impact on the future of nuclear power in the United States. Utilities have been broken up into separate generation, transmission, and distribution companies and are now allowed to sell electricity outside of their former service areas. As economic deregulation has occurred, the U.S. Nuclear Regulatory Commission has also adopted a new approach to regulation -- risk informed regulation. The implementation of risk-informed regulation has resulted in the adoption of a new regulatory format that attempts to highlight those areas having greatest risk significance. This paper explores these and other changes that have resulted because of the changing economic and regulatory environment for nuclear energy and examines their impact on the future of nuclear energy in the United States. (author)

  16. The impact of deregulation on the US nuclear industry

    International Nuclear Information System (INIS)

    Baratta, A.J.

    2001-01-01

    In the United States, the electric utility industry is undergoing a dramatic shift away from a tightly regulated monopoly to a free market system. The impact on the nuclear utility industry of deregulation coupled with recent changes in the nuclear regulatory environment has had a dramatic impact on the future of nuclear power in the United States. Utilities have been broken up into separate generation, transmission, and distribution companies and are now allowed to sell electricity outside of their former service areas. As economic deregulation has occurred, the U.S. Nuclear Regulatory Commission has also adopted a new approach to regulation -- risk informed regulation. The implementation of risk-informed regulation has resulted in the adoption of a new regulatory format that attempts to highlight those areas having greatest risk significance. This paper explores these and other changes that have resulted because of the changing economic and regulatory environment for nuclear energy and examines their impact on the future of nuclear energy in the United States. (author)

  17. Implications of nuclear industry globalization for chinese nuclear industry: opportunities and challenges

    International Nuclear Information System (INIS)

    Guo Zhifeng; Ding Qihua; Wang Zheng

    2014-01-01

    In recent years, globalization of the world nuclear industry has developed into a new phase. Chinese nuclear industry will be inevitably integrated into this trend. Globalization will bring both positive and adverse effects on Chinese nuclear industry. Facing the fierce competition, Chinese companies must rise to many challenges to enter the global nuclear market. And China need to make scientific decisions and take effective measures in various fields of nuclear industry to realized the goal of global development. (authors)

  18. Radioactive waste: the poisoned legacy of the nuclear industry

    International Nuclear Information System (INIS)

    Rousselet, Y.

    2011-01-01

    The nuclear industry produces a huge amount of radioactive waste from one end to the other of the nuclear cycle: i.e. from mining uranium to uranium enrichment through reactor operating, waste reprocessing and dismantling nuclear power plants. Nuclear power is now being 'sold' to political leaders and citizens as an effective way to deal with climate change and ensure security of energy supplies. Nonetheless, nuclear energy is not a viable solution and is thus a major obstacle to the development of clean energy for the future. In addition to safety and security issues, the nuclear industry is, above all, faced with the huge problem of how to deal with the waste it produces and for which it has no solution. This ought to put a brake on the nuclear industry, but instead, against all expectations, its development continues to gather pace. (author)

  19. Nuclear, future of ecology? 2. ed.

    International Nuclear Information System (INIS)

    Comby, B.

    1995-01-01

    According to the author, who is a famous ecologist and nuclear specialist, nuclear power is the only energy source which will be able to supply the energy needs of the 21. century and reduce the pollution. This digest book answers several questions frequently asked about: the Tchernobyl accident; the natural radioactivity; the natural, medical, military and industrial irradiation intensities; the environmental pollution; the behaviour of oil reserves; the advantages of ''clever'' nuclear and the risks linked with ''garbage'' nuclear; why many ecologists agree with nuclear power; the effects of ionizing radiations on health; the irradiation of foods; the processing of radioactive wastes; the future of the Earth etc.. (J.S.)

  20. Preparing the U.S. nuclear industry for a competitive future

    International Nuclear Information System (INIS)

    Tipton, T.E.

    1996-01-01

    To prepare for the transition from a regulated environment to a more competitive environment, the U.S. commercial nuclear industry prepared and issue a 'Strategy Plan for Improvement Economic Performance' in 1993. This plan has three major areas of activity: Actions to Improve Operational cost Competitiveness; Actions to Improve Industry Interaction with External Groups; and Actions to Improve Regulations and Regulatory Processes. This paper addresses the actions taken to improve the regulations and regulatory processes. (authors)

  1. Building world-wide nuclear industry success stories - Safe management of nuclear waste and used nuclear fuel

    International Nuclear Information System (INIS)

    Saint-Pierre, S.

    2005-01-01

    Full text: This WNA Position Statement summarizes the worldwide nuclear industry's record, progress and plans in safely managing nuclear waste and used nuclear fuel. The global industry's safe waste management practices cover the entire nuclear fuel-cycle, from the mining of uranium to the long-term disposal of end products from nuclear power reactors. The Statement's aim is to provide, in clear and accurate terms, the nuclear industry's 'story' on a crucially important subject often clouded by misinformation. Inevitably, each country and each company employs a management strategy appropriate to a specific national and technical context. This Position Statement reflects a confident industry consensus that a common dedication to sound practices throughout the nuclear industry worldwide is continuing to enhance an already robust global record of safe management of nuclear waste and used nuclear fuel. This text focuses solely on modern civil programmes of nuclear-electricity generation. It does not deal with the substantial quantities of waste from military or early civil nuclear programmes. These wastes fall into the category of 'legacy activities' and are generally accepted as a responsibility of national governments. The clean-up of wastes resulting from 'legacy activities' should not be confused with the limited volume of end products that are routinely produced and safely managed by today's nuclear energy industry. On the significant subject of 'Decommissioning of Nuclear Facilities', which is integral to modern civil nuclear power programmes, the WNA will offer a separate Position Statement covering the industry's safe management of nuclear waste in this context. The safe management of nuclear waste and used nuclear fuel is a widespread, well-demonstrated reality. This strong safety record reflects a high degree of nuclear industry expertise and of industry responsibility toward the well-being of current and future generations. Accumulating experience and

  2. Integrated project management information systems: the French nuclear industry experience

    International Nuclear Information System (INIS)

    Jacquin, J.-C.; Caupin, G.-M.

    1990-01-01

    The article discusses the desirability of integrated project management systems within the French nuclear power industry. Change in demand for nuclear generation facilities over the last two decades has necessitated a change of policy concerning organization, cost and planning within the industry. Large corporate systems can benefit from integrating equipment and bulk materials tracking. Project management for the nuclear industry will, in future, need to incorporate computer aided design tools and project management information systems data bases as well as equipment and planning data. (UK)

  3. Integrated project management information systems: the French nuclear industry experience

    Energy Technology Data Exchange (ETDEWEB)

    Jacquin, J.-C.; Caupin, G.-M.

    1990-03-01

    The article discusses the desirability of integrated project management systems within the French nuclear power industry. Change in demand for nuclear generation facilities over the last two decades has necessitated a change of policy concerning organization, cost and planning within the industry. Large corporate systems can benefit from integrating equipment and bulk materials tracking. Project management for the nuclear industry will, in future, need to incorporate computer aided design tools and project management information systems data bases as well as equipment and planning data. (UK).

  4. Nuclear power now and in the future

    Energy Technology Data Exchange (ETDEWEB)

    Collier, J G [Nuclear Electric (United Kingdom)

    1991-08-01

    The future of the nuclear industry in the United Kingdom is considered from the perspective of the new public sector utility, Nuclear Electric, set up to retain control of nuclear power stations on the privatization of the rest of the electricity supply industry. Two major objectives are the increased nuclear generation of electricity and the cutting of costs. These are discussed in terms of life extension programmes for the magnox reactors, improved performance of AGR reactors and expectations for the Sizewell B PWR station now under construction; waste management, reactor decommissioning and fuel-cycle costs are also considered. Economic, environmental and political criteria are outlined which need to be addressed in relation to the government's review of nuclear power in 1991. Because of the marginal economic advantages of nuclear power in the United Kingdom, it will be important to quantify the environmental and diversity benefits of this source. (UK).

  5. The young generation - guarantors for the future of the nuclear industry

    International Nuclear Information System (INIS)

    Broy, Y.

    2000-01-01

    The concept of the 'Young Generation' has been meeting with considerable interest in many European countries for a number of years already. On the basis of the Young Generation Network initiated by Jan Runermark, Sweden, Young Generation networks have been created in a number of European countries, including Germany. Since October 1998, Germany's Young Generation has worked in a changed political environment: As a result of the outcome of the elections to the federal parliament in 1998 and the establishment of a federal government by SPD (the Social Democratic Party) and Alliance 90/The Greens, opting out of the peaceful uses of nuclear power has become one of the guiding principles and goals. Hence, the qualified and highly motivated young employees of nuclear companies are bound to ask themselves whether there is any future for them in nuclear engineering. The Young Generation will work for the future of nuclear technology by embarking on a series of activities. Discussions with the public, transfer of know-how, and also an intensification of contacts among all companies active in the nuclear field are only some of the items of their agenda. The purpose of the activities, and the principle, of the Young Generation is this: The Young Generation is aware of its responsibility for the future, and is ready to meet the challenges. (orig.) [de

  6. Prospects for revitalization of the U.S. nuclear energy industry

    International Nuclear Information System (INIS)

    Colvin, Joe F.

    1998-01-01

    Today I want to make two key points about the U.S. nuclear energy industry. First, key policy issues are beginning to converge in a way that is very positive for our industry - and for society as a whole. And Second, the industry has worked hard to prepare for the future - and we are ready to make the most of these positive developments. Nuclear energy's prospects are the brightest they have been at any time in history. The plan identifies the building blocks that must be in place before utilities start building the next generation of nuclear plants. One, we wanted to improve the efficiency and reliability of our operating nuclear plants. Two, we wanted to establish a regulatory framework for license renewal. Three, we wanted to develop a more efficient licensing process for new plants. In closing, I am confident that the 21st century will bring a renaissance for nuclear energy-in the United States and around the world. The U.S. nuclear energy industry has a renewed vitality and sense of mission today. We've worked hard preparing for the future- and we will continue to be strong players in worldwide energy policy development in the 21st century. (Cho, G. S.)

  7. Q and A. The future of nuclear energy in Spain

    Energy Technology Data Exchange (ETDEWEB)

    Kraev, Kamen [NucNet, The Independent Global Nuclear News Agency, Brussels (Belgium)

    2017-11-15

    Nuclear is the primary source of electricity in Spain. Wind is second. In the first quarter of 2017 nuclear's contribution was 25 %, but by the end of the year it will even out to more or less the same level of 2016. Nuclear is still very important for Spain's energy mix. The question is, what will happen with nuclear in the near future? NucNet spoke to Ignacio Araluce, president of Spanish industry group Foro Nuclear, about energy policy, plant shut-downs and how Spain's nuclear industry is successfully diversifying overseas.

  8. Japan's nuclear industry; taking off in the mist

    International Nuclear Information System (INIS)

    1979-01-01

    This survey of the nuclear industry aimed at investigating the results and prospects of nuclear energy-related sales, expenditures and manpower in electric utilities, mining and manufacturing industries and trading companies in Japan, so that the study of the economic aspects of the nuclear industry and the analysis of problems may contribute to the sound development of the industry and provide with fundamental informations for interested persons in all sectors. It covers the fiscal year 1978, and is the 20th of a series of annual investigations. The fiscal year 1978 began with the court ruling on the Ikata case, and ended with the impact of the accident in the Three Mile Island plant, USA. As for the results of survey, the answers to questionnaire, the trend of expenditures, the trend of sales, the trend of manpower, the prospects for the future, and the flow of money in the nuclear industry are reported. The gross expenditures in private industries increased by 41% to 1,450 billion yen in comparison with the previous fiscal year. Sales exceeded expenditures by 12,600 million yen in mining and manufacturing industries. Manpower increased by 9% in electric utilities and 7% in mining and manufacturing industries. The construction of 3 nuclear power plants is due to start in fiscal 1978. (Kako, I.)

  9. Nuclear process steam for industry

    International Nuclear Information System (INIS)

    Seddon, W.A.

    1981-11-01

    A joint industrial survey funded by the Bruce County Council, the Ontario Energy Corporation and Atomic Energy of Canada Limited was carried out with the cooperation of Ontario Hydro and the Ontario Ministry of Industry and Tourism. Its objective was to identify and assess the future needs and interest of energy-intensive industries in an Industrial Energy Park adjacent to the Bruce Nuclear Power Development. The Energy Park would capitalize on the infrastructure of the existing CANDU reactors and Ontario Hydro's proven and unique capability to produce steam, as well as electricity, at a cost currently about half that from a comparable coal-fired station. Four industries with an integrated steam demand of some 1 x 10 6 lb/h were found to be prepared to consider seriously the use of nuclear steam. Their combined plants would involve a capital investment of over $200 million and provide jobs for 350-400 people. The high costs of transportation and the lack of docking facilities were considered to be the major drawbacks of the Bruce location. An indication of steam prices would be required for an over-all economic assessment

  10. Situation of nuclear industry in Japan

    International Nuclear Information System (INIS)

    2002-08-01

    This document is a reprint of a note published by the nuclear service of the French embassy in Japan. It evokes the present day situation of nuclear facilities in Japan, the public acceptance and its attitude in front of accidents, the national energy program, the deregulation and competitiveness of nuclear power, the carrying out of the nuclear program, the future reactors, the fast neutron reactors, the dismantling activities, the fuel enrichment and reprocessing of spent fuels, the use of MOX fuel, the off-site storage, the vitrified and radiological wastes, the geological disposal of wastes, the prospects of the nuclear program, the companies involved in the Japan nuclear industry, the French-Japanese bilateral cooperation, and the ITER project in the domain of nuclear fusion. (J.S.)

  11. Global perspectives on future nuclear energy utilisation

    International Nuclear Information System (INIS)

    Watts, G.L.

    1998-01-01

    This paper is presented as an overview of the nuclear sector from a global perspective. The aim is to show that nuclear power does have a future but that this will only be fully realised when the industry is able to demonstrate that it is part of the solution to the world's energy and environmental difficulties rather than part of the problem. The paper looks at the projected world energy demand as the population increases and countries develop, showing that nuclear power is required to meet this demand. In presenting nuclear power as a solution, the paper addresses the challenges facing us such as public confidence, environmental opposition, political issues and finance. It addresses the debate over reprocessing and direct disposal of irradiated nuclear fuel and looks at the competition from other fuels. The paper suggests how the industry might approach these issues such that nuclear power is indeed regarded globally as a solution to some of the worlds most pressing problems. (author)

  12. Applications of nuclear physics: Future trends

    International Nuclear Information System (INIS)

    Eichler, R.

    2005-01-01

    Nuclear physics and energy research depends on and advances science and technology outside of the nuclear field. Perhaps the most commonly perceived benefits to society from nuclear and particle physics are those derived from particle beam technology. Charged particle accelerators play an increasing role in applications in industry and medicine. Neutrons produced with a high power proton accelerator in a spallation process are used from basic research, radiography in automotive industry (example fuel cell development) to transmutation of highly radioactive fission products. Production and acceleration of ultra cold neutrons provide intense and almost mono-energetic neutrons to study soft matter. Heavier radioisotopes are used in a wide field ranging from medicine to semiconductor industry (ion implantation for doping or coating technologies). Concrete examples and future trends will be given. Detailed understanding of ion physics at low energy allows the design of compact accelerator mass spectroscopy (close to table top size). The ability to measure concentrations of specific radioactive isotopes even below the natural radioactivity widens the scope of applications from archaeology, climate research to food industry. Such a compact device is close to commercialisation. (author)

  13. The impact of computers on the nuclear utility industry

    International Nuclear Information System (INIS)

    Taylor, J.J.

    1984-01-01

    The applications of computer technology to the nuclear utility industry are discussed in light of recent phenomenal growth of computer hardware and software. Computer applications in existence in the power plants are presented, as well as potential future development for plant design, construction, operation, maintenance and retrofit. Utility concerns are addressed. The study concludes that the applications of computer technology to the nuclear utility industry are highly promising and evolutionary in nature

  14. Nuclear fuel industry of the republic of Kazakhstan

    International Nuclear Information System (INIS)

    Parfenov, D.; Dara, S.

    2001-01-01

    National Atomic Company Kazatomprom has been established in 1997 by special presidential decree with the purpose to coordinate the former USSR Nuclear Industry enterprises located on the territory of Kazakhstan. The Government of Kazakhstan entrusts the republican nuclear sector's future to Kazatomprom. Although Kazatomprom is a state-owned company and operates on behalf of the government, it is private in terms of ownership, being organized in a form of a closed type joint stock company, and within its structure there are daughter companies with a certain share of private capital. Formally Kazatomprom has started only a few years ago, but it should not create confusion. Because Kazatomprom has only united the USSR traditional nuclear cycle units, which, I want to emphasize for, count as long history as that of the nuclear industry itself. This fact is the guarantee of high quality production culture inherent to the former USSR Defense Industry

  15. Present and Future of Nuclear Robotics; Presente y futuro de la robotica nuclear

    Energy Technology Data Exchange (ETDEWEB)

    Bielza Ciaz-Caneja, M [ENDESA, (Spain); Carmena Servet, P [AMYS, (Spain); Gomez Santamaria, J [IBERDROLA, (Spain); Gonzalez Fernandez, J [NUCLENOR, (Spain); Izquierdo Mendoza, J A [C.N. COFRENTES, (Spain); Linares Pintos, F [ENSA, (Spain); Gonzalez, Martinez [CASA, (Spain); Muntion Ruesgas, A [C.N. STA Maria de Garona, (Spain); Serna Oliveira, M A [CEIT, (Spain)

    1997-10-01

    New technologies have increased the use of robotic systems in fields other than Industry. As a result, research and developers are focusing their interest in concepts like Intelligent Robotics and Robotics in Services. This paper describes the use of Robotics in Nuclear facilities, where robots can be used to protect workers in high radiation areas, to reduce total worker exposure and to minimise downtime. First, the structure of robot systems is introduced and the benefits of nuclear robots is presented. Next, the paper describes some specific nuclear applications and the families of nuclear robots present in the market. After that, a section is devoted to Nuclear Robotics in Spain, with emphasis in some of the developments being carried out at present. Finally, some reflections about the future of robots in Nuclear Industry are offered. (Author) 18 refs.

  16. Present situation and future prospects for French nuclear power plants

    International Nuclear Information System (INIS)

    Carle, R.

    1984-01-01

    The author depicts the present situation and future of the French nuclear power programme which has now become a major industrial reality after successful acceptance of a twofold challenge: the technical problem and that of training the personnel responsible for operating the power stations. The large number of nuclear plants now in operation and planned for the next few years makes electricity generated from nuclear power a ''new industrial reality'', which we must still learn to utilize to the best effect [fr

  17. The changing structure of the international commercial nuclear power reactor industry

    International Nuclear Information System (INIS)

    Forsberg, C.W.; Hill, L.J.; Reich, W.J.; Rowan, W.J.

    1992-12-01

    The objective of this report is to provide an understanding of the international commercial nuclear power industry today and how the industry is evolving. This industry includes reactor vendors, product lines, and utility customers. The evolving structure of the international nuclear power reactor industry implies different organizations making decisions within the nuclear power industry, different outside constraints on those decisions, and different priorities than with the previous structure. At the same time, cultural factors, technical constraints, and historical business relationships allow for an understanding of the organization of the industry, what is likely, and what is unlikely. With such a frame of reference, current trends and future directions can be more readily understood

  18. The nuclear industry and the young generation

    International Nuclear Information System (INIS)

    Hanti, A.

    2000-01-01

    The European Nuclear Society was founded in 1975. It is a federation of 25 nuclear societies from 24 countries-stretching from the Atlantic to the Urals and on across Russia to the Pacific. Through Russia's membership in the Pacific Nuclear Council. ENS is directly linked to that area, too. ENS comprises more than 20 000 professionals from industry, power stations, research centers and authorities, working to advance nuclear energy. ENS has three Member Societies in Australia, Israel and Morocco. Also it has collaboration agreements with the American Nuclear Society, the Argentinean Nuclear Energy Association, the Canadian and the Chinese Nuclear Societies. ENS is doing pioneering work with its Young Generation Network, standing for positive measures to recruit and educate young people as engineers, technicians and skilled staff ion the nuclear field: from school to university and in industry. The goals of the YGN are: to promote the establishment of national Young Generation networks; to promote the exchange of knowledge between older and younger generation cross-linked all over Europe; to encourage young people in nuclear technology to provide a resource for the future; to communicate nuclear issues to the public (general public, media, politicians). (N.C.)

  19. Preservation and re-use of nuclear knowledge in the UK nuclear industry

    International Nuclear Information System (INIS)

    Workman, R.

    2004-01-01

    This paper addresses the need for the UK nuclear industry to preserve knowledge generated during the 6 decades of its existence for re-use by future generations. It outlines the major government restructuring of the industry and its impact on knowledge preservation. Work within British Nuclear Fuels plc to meet the knowledge preservation requirements of its business is described. The focus is shown to be the alignment of tacit knowledge - gained through interviews with key specialists - with the explicit knowledge contained within the major knowledge base (Corporate Memory). The creation of knowledge packages to hold key knowledge on core technologies and nuclear plants is described. The paper also covers developments in securing the nuclear skill base through University Research Alliances and the Dalton Nuclear Institute. Returning to the major new challenges ahead it is shown how a knowledge portal could be implemented, linking the knowledge repositories present within the organisations that will feature in the restructured UK nuclear industry in 2005. The UK nuclear industry is facing its greatest challenge in terms of its organisation and commercial interests, at a time when the technical challenges presented by the decommissioning of old nuclear plants and the remediation of its nuclear sites are building up. In terms of knowledge preservation there has never been a greater need to ensure that knowledge associated with the key technologies that underpin the nuclear plants, and the plants themselves, is made available for use now and in the future. The Nuclear Decommissioning Authority [NDA] - a new government body that will come into being in April 2005 - will own the liabilities (the nuclear plants). Those organisations bidding to operate and decommission plants on the UK nuclear sites will utilise the assets to best effect as Site Licensing Companies [SLC] under contract to the NDA. The key asset is knowledge. Knowledge is present in explicit forms within

  20. Alarm systems in the nuclear industry - survey of the working situation and identification of future research issues

    International Nuclear Information System (INIS)

    Joensson, Anna; Osvalder, Anna-Lisa; Holmstroem, Conny; Dahlman, Sven

    2004-01-01

    Safety issues are important in the control of industrial processes. An essential part for interpreting and avoiding hazardous situations is the alarm system and its design. To increase the knowledge and to develop new design solutions this doctoral project was initiated. The work has been divided into three stages and this paper presents the results of the first stage. The objective of stage one was to investigate how operators in both nuclear and non-nuclear plants work. A comparison between different branches of industry was also performed. From these results a future research issue has been identified. The methods used were observations, interviews and a literature study. The results showed that the operators are satisfied with the performance of the alarm system during normal operating conditions. However, several problems could also be identified but most of them are already well-known in the nuclear industry. Since these problems are well known but still exist, this result contributes to the basic hypothesis that a theoretical basis is lacking for the design of the alarm system. The proposed issue for forthcoming work is therefore to collect and compile existing knowledge about the human information processing and alarm systems, and combine the knowledge from these areas. With a better understanding of the relation between these areas it is possible to develop new design solutions which are better adapted to the human capabilities and limitations. This would support operator performance which in turn increases plant performance and safety. (Author)

  1. Ranking French nuclear industry on international market

    International Nuclear Information System (INIS)

    Labbe, B.

    1987-01-01

    Based on the success of its own ambitious nuclear power station program, France has been able to export its technology to many parts of the world, providing everything from individual components to complete power stations on a turnkey basis. Industrial partners who regurarly work together have set up the necessary structures to ensure the dovetailing of their activities during joint operations on the foreign market. These structures are matched to the needs of individual clients, and can be dispensed with completely in cases where a sole supplier is involved. Not one single unit under construction has been halted and no contract cancelled after the Chernobyl accident. France, like Japan and the USSR, is pressing on with its nuclear power program. China has ordered two PWR units for Daya Bay, while Britain has decided to construct its first PWR at Sizewell. Although a number of countries have deferred decisions in this field, this has been mainly on financial grounds. The French nuclear power industry has demonstrated its mastery of the technology, which can now be placed at the disposal of countries wishing to build nuclear power units, to improve their existing nuclear capacity, to develop parts of this future-oriented industry, or to supply their power stations with advanced nuclear fuel

  2. Science or Fiction - Is there a Future for Nuclear

    International Nuclear Information System (INIS)

    Wenisch, A.; Kromp, R.; Reinberger, D.

    2007-01-01

    This booklet served as preparation for both participants and speakers at the conference »Science or Fiction – Is there a Future for Nuclear?«. This international conference on fusion energy and new nuclear reactor models was organized by Global 2000/Friends of the Earth Austria and took place 8 November 2007 in Vienna. This booklet contains our contribution to the ongoing discussion about future energy security and what paths we should take. We focus on the possible future scenarios for nuclear power. The nuclear industry is trying to secure its own future by reintroducing old concepts like nuclear fusion and updating old fission reactors in so-called Generation IV systems. While there is enough information available on both fission and fusion energy from project financiers, research institutions and the European Commission, who gave the lion share of energy research funds into fusion research, we attempt here to provide a broader perspective and examine how much is Fiction and what these concepts could mean in some future Reality, which is upon us to decide on Now. (author)

  3. Science or Fiction - Is there a Future for Nuclear

    Energy Technology Data Exchange (ETDEWEB)

    Wenisch, A.; Kromp, R.; Reinberger, D.

    2007-07-01

    This booklet served as preparation for both participants and speakers at the conference »Science or Fiction – Is there a Future for Nuclear?«. This international conference on fusion energy and new nuclear reactor models was organized by Global 2000/Friends of the Earth Austria and took place 8 November 2007 in Vienna. This booklet contains our contribution to the ongoing discussion about future energy security and what paths we should take. We focus on the possible future scenarios for nuclear power. The nuclear industry is trying to secure its own future by reintroducing old concepts like nuclear fusion and updating old fission reactors in so-called Generation IV systems. While there is enough information available on both fission and fusion energy from project financiers, research institutions and the European Commission, who gave the lion share of energy research funds into fusion research, we attempt here to provide a broader perspective and examine how much is Fiction and what these concepts could mean in some future Reality, which is upon us to decide on Now. (author)

  4. The future of the uranium mining industry

    International Nuclear Information System (INIS)

    Capus, G.; Galaud, G.

    1993-01-01

    This paper presents the state of natural Uranium market today. In a first part, the author gives a brief history about nuclear programs history in Usa and Europe and describes natural Uranium demand and supply (Uranium mines, recycling, excessive civil stocks, military stocks using). In a second part, evolutions and futures of Uranium industry is studied: using of excessive stocks in Western Europe, using of military stocks, recycling of Uranium from spent fuels reprocessing, uranium deposits, future natural uranium market. 6 refs., 4 figs., 3 tabs., 3 photos

  5. Feeding the nuclear pipeline: Enabling a global nuclear future

    International Nuclear Information System (INIS)

    Walter, A.E.

    2004-01-01

    Nuclear energy, which exhibits a unique combination of environmental and sustainable attributes, appears strongly positioned to play a much larger and more pivotal role in the mix of future global energy supplies than it has played in the past. Unfortunately, enrolment patterns in nuclear engineering programmes have seriously eroded over the past decade - causing alarmingly low enrolment levels in many countries by the turn of the century and a sobering concern that the nuclear manpower pipeline cannot keep up with the emerging needs of the nuclear industry. On the positive side, enrolment patterns within the United States are now generally on the rise, at least at the undergraduate level. A few of the particularly successful efforts initiated by various sectors of the U.S. nuclear infrastructure to stimulate this rebound are shared in this paper with the hope that some of them might be beneficially employed in other global settings. (author)

  6. Best practice asset management in the nuclear industry

    International Nuclear Information System (INIS)

    Maxey, Terry M.

    2004-01-01

    Pursuit of operational excellence is the goal of every nuclear plant operator. Implementation of Enterprise Asset Management(EAM) solutions in the nuclear industry has significantly contributed to record performance over the last decade in the areas of reliability and production, nuclear and personnel safety, and production cost. This presentation will outline the scope of best practice EAM implementation and highlight performance results achieved from EAM deployment. It will also explore areas of future opportunity in which EAM solutions will support an era of new nuclear plant construction in the United States

  7. The technical and industrial evolutions in the nuclear fuel cycle

    International Nuclear Information System (INIS)

    Rougeau, J.P.; Guais, J.C.

    1989-01-01

    The fuel cycle industry is a vital part of nuclear energy generation. Producers in every step of this industry, from uranium to reprocessing are working to adapt their products and services both to the more and more competitive conditions of the market and to the utilities evoluting specific needs. For the next decade, the main trend is uranium economy and reduction of industrial costs. For the longer term, the difficult prevision of nuclear energy developments, in particular with new types of reactors necessitates a true capacity of adaptation both from the utilities and from the fuel cycle industry. Cogema has already demonstrated the ability to adapt its industrial capabilities and therefore can prepare confidently for the future challenges [fr

  8. The Philippine nuclear power project, its past, present and future

    International Nuclear Information System (INIS)

    Jovellanos, J.U.

    1993-01-01

    The article discussed the historical background of the nuclear power plants; how it operates; the government opinion on the operation of the nuclear power plant; the application of power resources to industry; the implementation of PNPP-1 particularly the economic aspects of energy in the near future. (IMA)

  9. The adventure of nuclear energy: a scientifical and industrial history

    International Nuclear Information System (INIS)

    Reuss, P.

    2007-01-01

    The nuclear energy history is one of the most exciting scientifical and industrial adventure. In France, in a few decades, nuclear energy has become the main energy source for power generation. The aim of this book is to present the stakes of this challenge, to better outline the difficulties that have been encountered all along its development in order to better understand the complexness of such a development. After an overview of the successive advances of atomic and nuclear physics since more than a century, the book describes the genesis of nuclear energy, its industrial developments and its still wide open perspectives. The conclusions makes a status of the advantages and risks linked with this energy source. The book contains also the testimonies of two French nuclear actors: P. Benoist and S. David. The forewords by H. Langevin, daughter of F. and I. Joliot-Curie, stresses on the past and future role of nuclear energy in the live synergy between research and industry. (J.S.)

  10. The current status and future prospects of the Korean nuclear power industry

    International Nuclear Information System (INIS)

    Lee, J. J.

    2006-01-01

    Recently, countries all over the world are becoming aware of the values and importance of nuclear energy which can help respond to energy crises caused by a sharp rise in oil prices and protect the earth from global warming. Since 1978, when Kori Unit 1(587MW), opened the nuclear generation era as a semi-domestic energy resource in Korea which is absolutely in short supply of energy, nuclear power generation in Korea has developed continuously for the past 28 years. Four new units including the Yonggwang 5 and 6 and Ulchin 5 and 6 have been successfully completed, raising the total nuclear installed capacity to 17,716MW from 20 units. At present, the nuclear generation in Korea is stably supplying about 40% of total electric generation, which is the fundamental energy of the nation, supporting the dynamic economic growth of Korea. In particular, Korean nuclear industry has been achieving excellent performance in nuclear power plant operation. The average capacity factor in 2005 hit the record of 95.5%, surpassing the previous record of 94.2% in 2003 in two years. Kori Unit 4 and another four units were listed at the top five in the capacity factor rating list of 2005 released by Nucleonics Week. In 2005, the site for radioactive waste disposal, which had been a long-cherished hope and the largest pending issue of the nuclear industry, was successfully selected in Korea through resident ballot as the first case of a national policy project, and as such, a national agenda was solved after 19 long years. Such a method in site selection has a significant meaning and establishes an excellent precedence; a large national policy project was decided upon by the residents themselves. As one of the model countries of building and operating nuclear power plants and technological independence, Korea is willing to contribute to the common goals of the world nuclear circle which can be summarized into energy security and environment preservation, by sharing accumulated

  11. Challenging today's nuclear industry to be competitive in a changing tomorrow

    International Nuclear Information System (INIS)

    Plug, B.

    1996-01-01

    As the millennium approaches, the future of the nuclear power generation appears desolate. Today's nuclear executives are facing challenges resulting from worldwide change and have forced utilities to reevaluate their corporation's future directions. The nuclear industry must be competitive more than ever to address today's rapid changing marketplace and pressures exerted from: regulatory reformation; increased competition; changes in technology; customer evolution; and globalization. These factors have compelled nuclear executives to address questions such as: What impact will these changes have on today's marketplace, and on my corporation? What will characterize tomorrow's successful nuclear facility? How can today's nuclear corporation compete in tomorrow's marketplace? Will my corporation survive? (author)

  12. Nuclear industry and territories

    International Nuclear Information System (INIS)

    Le Ngoc, B.

    2016-01-01

    Nuclear industry being composed of plants, laboratories, nuclear power stations, uranium mines, power lines and fluxes of materials from one facility to another is a strong shaper of the national territory. Contrary to other European countries, French nuclear industry is present all over the national territory. In 64 departments out of 101 there is at least one enterprise whose half of the revenues depends on nuclear activities. The advantage of such a geographical dispersion is when a nuclear activity is given up the social impact is less important: people tend to find a new job in the same region. French Nuclear power plants are generally set in remote places where population density is low and being the first employer by far of the area and being a major contributor to the city revenues, they are perceived as a key element the local population is proud of. In Germany, nuclear power plants are set inside dense industrial regions and appear as an industry just like any other.(A.C.)

  13. Perspective of nuclear power policy change and trend of nuclear industry activities from energy policy of European countries

    International Nuclear Information System (INIS)

    Murakami, Tomoko; Matsuo, Yuji; Nagatomi, Yu

    2009-01-01

    European countries of nuclear power phase-out have changed to commit to the future of nuclear energy due to the intended low-carbon power, the energy security concerns and the need of replacement reactors as current reactors approach the end of operating lives, as Italian government has passed legislation to build new nuclear power plants. This article described the perspective of nuclear power policy changes in UK, Italy an Sweden and the business trend and the SWOT analysis of related electric utilities (EDF, Enel and Vattenfall) and nuclear industries (Areva NP, Sheffield Forgemasters, ENSA and Studsvik). Policy implications obtained from this analysis were commented for Japanese nuclear industry activities. (T. Tanaka)

  14. Current status and future prospects of Korean standardized nuclear power plant design

    International Nuclear Information System (INIS)

    Rieh, C.-H.; Park, S.-K.; Lee, B.-R.

    1992-01-01

    The authors reviewed a brief history of Korean nuclear industry since the first Kori-1 plant operation in 1978 with special emphasis on the NSSS and BOP design and engineering, and the design approaches for nuclear power plants in the future. Continued effort to enhance plant economy and operational safety has been made by increasing plant size, and improving safety features, systems and component reliability in various design aspects. Korean nuclear industry is now trying to be one of the major contributors to the world nuclear field in sharing nuclear technology gained from past experience and developed through internation technical cooperation programs

  15. Nuclear energy and the steel industry

    International Nuclear Information System (INIS)

    Barnes, R.S.

    1977-01-01

    Fossil fuels represent a large part of the cost of iron and steel making and their increasing cost has stimulated investigation of methods to reduce the use of fossil fuels in the steel industry. Various iron and steel making routes have been studied by the European Nuclear Steelmaking Club (ENSEC) and others to determine to what extent they could use energy derived from a nuclear reactor to reduce the amount of fossil fuel consumed. The most promising concept is a High-Temperature Gas-Cooled Nuclear Reactor heating helium to a temperature sufficient to steam reform hydrocarbons into reducing gases for the direct reduction of iron ores. It is proposed that the reactor/reformer complex should be separate from the direct-reduction plant/steelworks and should provide reducing gas by pipeline, not only to a number of steel works but to other industrial users. The composition of suitable reducing gases and the methods of producing them from various feedstocks are discussed. Highly industrialised countries with large steel and chemical industries have shown greatest interest in the concept, but those countries with large iron-ore reserves and growing direct capacity should consider the future value of the High-Temperature Gas-Cooled Reactor as a means of extending the life of their gas reserves. (author)

  16. The UK nuclear power industry

    International Nuclear Information System (INIS)

    Collier, J. G.

    1995-01-01

    In the United Kingdom, nuclear power plants are operated by three companies: Nuclear Electric (NE), Scottish Nuclear (SN), and British Nuclear Fuels plc (BNFL). The state-operated power industry was privatized in 1989 with the exception of nuclear power generation activities, which were made part of the newly founded (state-owned) NE and SN. At the same time, a moratorium on the construction of new nuclear power plants was agreed. Only Sizewell B, the first plant in the UK to be equipped with a pressurized water reactor, was to be completed. That unit was first synchronized with the power grid on February 14, 1995. Another decision in 1989 provided for a review to be conducted in 1994 of the future of the peaceful uses of nuclear power in the country. The results of the review were presented by the government in a white paper on May 9, 1995. Accordingly, NE and SN will be merged and privatized in 1996; the headquarters of the new holding company will be in Scotland. The review does not foresee the construction of more nuclear power plants. However, NE hopes to gain a competitive edge over other sources of primary energy as a result of this privatization, and advocates construction of a dual-unit plant identical with Sizewell B so as to avoid recurrent design and development costs. Outside the UK, the company plans to act jointly with the reactor vendor, Westinghouse, especially in the Pacific region; a bid submitted by the consortium has been shortisted by the future operator of the Lungmen nuclear power plant project in Taiwan. In upgrading the safety of nuclear power plants in Eastern Europe, the new company will be able to work through existing contacts of SN. (orig.) [de

  17. 21 reports of future industry

    International Nuclear Information System (INIS)

    2001-02-01

    This book deals with 21 reports on future industry, which contain revolution of digital educations, genetic engineering, the newest medical device, environmental industry, artificial intelligence, virtual reality, bio-green revolution, energy of the future, advanced concept computer, e-commerce, digital cash, game industry, information technology for future, next DRAM, information protection industry, robot to replace manpower, medium for information display, navigation systems, a space development, design industry and, home automation.

  18. Opening Doors of Opportunity to Develop the Future Nuclear Workforce - 13325

    International Nuclear Information System (INIS)

    Mets, Mindy

    2013-01-01

    The United States' long-term demand for highly skilled nuclear industry workers is well-documented by the Nuclear Energy Institute. In addition, a study commissioned by the SRS Community Reuse Organization concludes that 10,000 new nuclear workers are needed in the two-state region of Georgia and South Carolina alone. Young adults interested in preparing for these nuclear careers must develop specialized skills and knowledge, including a clear understanding of the nuclear workforce culture. Successful students are able to enter well-paying career fields. However, the national focus on nuclear career opportunities and associated training and education programs has been minimal in recent decades. Developing the future nuclear workforce is a challenge, particularly in the midst of competition for similar workers from various industries. In response to regional nuclear workforce development needs, the SRS Community Reuse Organization established the Nuclear Workforce Initiative (NWI R ) to promote and expand nuclear workforce development capabilities by facilitating integrated partnerships. NWI R achievements include a unique program concept called NWI R Academies developed to link students with nuclear career options through firsthand experiences. The academies are developed and conducted at Aiken Technical College and Augusta Technical College with support from workforce development organizations and nuclear employers. Programs successfully engage citizens in nuclear workforce development and can be adapted to other communities focused on building the future nuclear workforce. (authors)

  19. Opening Doors of Opportunity to Develop the Future Nuclear Workforce - 13325

    Energy Technology Data Exchange (ETDEWEB)

    Mets, Mindy [Nuclear Workforce Initiative Program, SRS Community Reuse Organization, P.O. Box 696, Aiken, SC 29802 (United States)

    2013-07-01

    The United States' long-term demand for highly skilled nuclear industry workers is well-documented by the Nuclear Energy Institute. In addition, a study commissioned by the SRS Community Reuse Organization concludes that 10,000 new nuclear workers are needed in the two-state region of Georgia and South Carolina alone. Young adults interested in preparing for these nuclear careers must develop specialized skills and knowledge, including a clear understanding of the nuclear workforce culture. Successful students are able to enter well-paying career fields. However, the national focus on nuclear career opportunities and associated training and education programs has been minimal in recent decades. Developing the future nuclear workforce is a challenge, particularly in the midst of competition for similar workers from various industries. In response to regional nuclear workforce development needs, the SRS Community Reuse Organization established the Nuclear Workforce Initiative (NWI{sup R}) to promote and expand nuclear workforce development capabilities by facilitating integrated partnerships. NWI{sup R} achievements include a unique program concept called NWI{sup R} Academies developed to link students with nuclear career options through firsthand experiences. The academies are developed and conducted at Aiken Technical College and Augusta Technical College with support from workforce development organizations and nuclear employers. Programs successfully engage citizens in nuclear workforce development and can be adapted to other communities focused on building the future nuclear workforce. (authors)

  20. Human factors in the Canadian nuclear industry: future needs

    International Nuclear Information System (INIS)

    Harrison, F.

    2008-01-01

    Currently the industry is facing refurbishment and new builds. At present most licensees in Canada do not have sufficient numbers of Human Factors staff. As a result, the activities of the CNSC are too often focused on providing guidance regarding the application of Human Factors, in addition to reviewing work submitted by the licensee. Greater efficiencies for both the licensee and the CNSC could be realized if licensee staff had greater Human Factors expertise. Strategies for developing Human Factors expertise should be explored through cooperative partnerships with universities, which could be encouraged to include Human Factors courses specific to nuclear. (author)

  1. Nuclear measurements in industry

    International Nuclear Information System (INIS)

    Rozsa, S.

    1989-01-01

    In this book the author provides a description of nuclear measurements in industry, covering the physical principles, methods, instruments and equipment, and industrial applications. One of the great advantages of industrial nuclear measurements is that their use ensures the optimum use of raw material. The increasing cost of raw materials makes it essential to adhere strictly to the standards and prescriptions related to the product and this is possible only by the application of continuous and accurate measurements. As a result, the importance of nuclear instruments is rapidly growing particularly in fields where the application of alternative methods is not possible. This is illustrated by several practical examples described in the book. Similarly important are nuclear measuring the process control equipment which serve to optimize the use of energy in industrial processes

  2. Actual growth and probable future of the worldwide nuclear industry

    International Nuclear Information System (INIS)

    Bupp, I.C.

    1981-01-01

    Worldwide nuclear-power-reactor manufacturing capacity will exceed worldwide demand by a factor of two or more during the 1980s. Only in France and the Soviet bloc countries is it likely that the ambitious nuclear-power programs formulated in the mid-1970s will be implemented. In all other developed countries and in most developing countries, further delays and cancellations of previously announced programs are all but certain. The stalemate over the future of nuclear power is particularly deep in America. Administrative and personnel problems in the Nuclear Regulatory Commission, slow progress on radioactive waste disposal by the Department of Energy, severe financial problems for most electric utilities, and drastic reductions in the rate of electricity demand growth combine to make continuation of the five-year-old moratorium on reactor orders inevitable. Many of the ninety plants under construction may never operate, and some of the seventy in operation may shut down before the end of their economic life. Contrary to widespread belief, further oil price increases may not speed up world-wide reactor sales. It is possible that the world is heading for a worst of all possible outcomes: a large number of small nuclear power programs that do little to meet real energy needs but substantially complicate the problem of nuclear weapons proliferation. 24 references, 4 tables

  3. Industrial Applications of Nuclear Energy

    International Nuclear Information System (INIS)

    2017-01-01

    This publication provides a detailed overview of the potential use of nuclear energy for industrial systems and/or processes which have a strong demand for process heat/steam and power, and on the mapping of nuclear power reactors proposed for various industrial applications. It describes the technical concepts for combined nuclear-industrial complexes that are being pursued in various Member States, and presents the concepts that were developed in the past to be applied in connection with some major industries. It also provides an analysis of the energy demand in various industries and outlines the potential that nuclear energy may have in major industrial applications such as process steam for oil recovery and refineries, hydrogen generation, and steel and aluminium production. The audience for this publication includes academia, industry, and government agencies.

  4. Future energy mix - also without nuclear power?

    International Nuclear Information System (INIS)

    George, C.

    2005-01-01

    The considerable rises in the price of oil in the months of October and November 2004 assigned topical importance to the 'Future Energy Mix - also without Nuclear Power?' meeting of young nuclear engineers and students with experts from politics, industry, and research at the YOUNG GENERATION event organized at the Biblis nuclear power station on November 4-6, 2004. Specialized presentations were made about these topics: The Biblis Nuclear Power Plant Site. The Effects of Deregulation on the Electricity Market Emission Trading - a Combination of Economy and Ecology? Energy Mix for the 21 st Century. The event was completed by a round-table discussion among leading experts, and a presentation of perspectives in university education in areas encompassing power technology. (orig.)

  5. Role of high technology in the nuclear industry

    International Nuclear Information System (INIS)

    Cain, D.G.

    1986-01-01

    A discussion of high technology identifies the characteristics which distinguish it from conventional technologies, and the impact high technology will have in the nuclear power industry in the near future. The basic theme is that high technology is an ensemble of competing technological developments that shifts with time and technological innovation. The attributes which current distinguish high technology are compactness, plasticity, convergence, and intelligence. These high technology attributes are presented as a prelude to some examples of high technology developments which are just beginning to penetrate the nuclear industry. Concluding remarks address some of the challenges which must be faced in order to assure that high technology is successfully adapted and used

  6. Nuclear Research and Development Capabilities Needed to Support Future Growth

    Energy Technology Data Exchange (ETDEWEB)

    Wham, Robert M. [ORNL, P.O. Box 2008, Oak Ridge, TN 37831-6154 (United States); Kearns, Paul [Battelle Memorial Institute (United States); Marston, Ted [Marston Consulting (United States)

    2009-06-15

    The energy crisis looming before the United States can be resolved only by an approach that integrates a 'portfolio' of options. Nuclear energy, already an important element in the portfolio, should play an even more significant role in the future as the U.S. strives to attain energy independence and reduce carbon emissions. The DOE Office of Nuclear Energy asked Battelle Memorial Institute to obtain input from the commercial power generation industry on industry's vision for nuclear energy over the next 30-50 years. With this input, Battelle was asked to generate a set of research and development capabilities necessary for DOE to support the anticipated growth in nuclear power generation. This presentation, based on the report generated for the Office of Nuclear Energy, identifies the current and future nuclear research and development capabilities required to make this happen. The capabilities support: (1) continued, safe operation of the current fleet of nuclear plants; (2) the availability of a well qualified and trained workforce; (3) demonstration of the next generation nuclear plants; (4) development of a sustainable fuel cycle; (5) advanced technologies for maximizing resource utilization and minimization of waste and (6) advanced modeling and simulation for rapid and reliable development and deployment of new nuclear technologies. In order to assure these capabilities are made available, a Strategic Nuclear Energy Capability Initiative is proposed to provide the required resources during this critical period of time. (authors)

  7. Nuclear industry technology boomerang

    International Nuclear Information System (INIS)

    Scholler, R.W.

    1987-01-01

    The benefits to the medical, pharmaceutical, semiconductor, computer, video, bioscience, laser, defense, and numerous high-tech industries from nuclear technology development fallout are indeed numerous and increase every day. Now those industries have made further progress and improvements that, in return, benefit the nuclear industry. The clean-air and particle-free devices and enclosures needed for protection and decontamination are excellent examples

  8. Future of nuclear power after Chernobyl

    International Nuclear Information System (INIS)

    Asselstine, J.K.

    1987-01-01

    If nuclear power plants are to have a future in the US, existing plants must demonstrate a safe and accident-free operation, the public must perceive that the Nuclear Regulatory Commission (NRC) is independent and objective, safety corrections must make operating plants more reliable, and the US must develop an acceptable way to dispose of high-level radioactive wastes. Focusing on safe operation and public confidence in the NRC, the author examines the consequences of the Chernobyl accident and compares public opinion reactions with those following the Three Mile Island accident. He notes the recent NRC decisions have been counterproductive to the nuclear industry, but that other countries have demonstrated that the goal of safe nuclear power is achievable. The NRC will have to increase the level of public participation in the regulatory process if it hopes to restore its former level of credibility

  9. Nuclear industry almanac v.1

    International Nuclear Information System (INIS)

    Greenhalgh, G.; Jeffs, E.

    1982-01-01

    Nuclear Industry Almanac. National energy profiles of 17 Western European countries are given, concentrating on electricity supply and the role nuclear power plays in meeting the demand for electric power. The nuclear industries of Austria, Belgium, Finland, France, Germany, Italy, the Netherlands, Spain, Sweden, Switzerland and the United Kingdom are described and addresses of establishments and industries are listed. (U.K.)

  10. Modelling human resource requirements for the nuclear industry in Europe

    Energy Technology Data Exchange (ETDEWEB)

    Roelofs, Ferry [Nuclear Research and Consultancy Group (NRG) (Netherlands); Flore, Massimo; Estorff, Ulrik von [Joint Research Center (JRC) (Netherlands)

    2017-11-15

    The European Human Resource Observatory for Nuclear (EHRO-N) provides the European Commission with essential data related to supply and demand for nuclear experts in the EU-28 and the enlargement and integration countries based on bottom-up information from the nuclear industry. The objective is to assess how the supply of experts for the nuclear industry responds to the needs for the same experts for present and future nuclear projects in the region. Complementary to the bottom-up approach taken by the EHRO-N team at JRC, a top-down modelling approach has been taken in a collaboration with NRG in the Netherlands. This top-down modelling approach focuses on the human resource requirements for operation, construction, decommissioning, and efforts for long term operation of nuclear power plants. This paper describes the top-down methodology, the model input, the main assumptions, and the results of the analyses.

  11. Modelling human resource requirements for the nuclear industry in Europe

    International Nuclear Information System (INIS)

    Roelofs, Ferry; Flore, Massimo; Estorff, Ulrik von

    2017-01-01

    The European Human Resource Observatory for Nuclear (EHRO-N) provides the European Commission with essential data related to supply and demand for nuclear experts in the EU-28 and the enlargement and integration countries based on bottom-up information from the nuclear industry. The objective is to assess how the supply of experts for the nuclear industry responds to the needs for the same experts for present and future nuclear projects in the region. Complementary to the bottom-up approach taken by the EHRO-N team at JRC, a top-down modelling approach has been taken in a collaboration with NRG in the Netherlands. This top-down modelling approach focuses on the human resource requirements for operation, construction, decommissioning, and efforts for long term operation of nuclear power plants. This paper describes the top-down methodology, the model input, the main assumptions, and the results of the analyses.

  12. Today's nuclear power industry and 10 years down the road

    International Nuclear Information System (INIS)

    Diamond, M.S.

    1986-01-01

    The author discusses: the changes underway in the power industry market and their implications; the strategies which can lead to profitable leadership in the kind of market they see evolving; and how, perhaps, to build a more promising long-term future for nuclear energy in the U.S. He says, there is a tough decade ahead; lots of change and a lot of pressure. Little is going to happen that is going to make life easier for the American nuclear industry. There are going to be losers in this industry but there definitely will be winners in the next decade. There is a large market to serve and service businesses can be very attractive and very profitable - and there is a real chance for the long-term future as well. But, to succeed and prosper in the coming decade a double commitment is required. First, a commitment to the effort to compete effectively in a tight, mature market. But, even as you are doing that, a further commitment is needed to continue to invest in what is likely to be both a long-term and highly uncertain future - with no guarantees, but the glimmer of possibility

  13. Status of Chinese NPP Industry and Nuclear Fuel Cycle Policy

    Energy Technology Data Exchange (ETDEWEB)

    Gao, R. X. [Korea Atomic Energy Research Institute, Daejeon (Korea, Republic of); Ko, W. I.; Kim, S. K. [Univ. of Science and Technology, Daejeon (Korea, Republic of)

    2013-05-15

    China still extended their experiences to both domestic and overseas so far. Chinese State Council approved its 'Medium and Long-term Nuclear Power Development Plan' in November 2007, indicating further definition for nuclear energy as indispensable energy option and future self-reliance development of nuclear industry. China intends to become self-sufficient not only in NPPs capacity, but also in the fuel production for all those plants. There are currently 17 NPPs in operation, and 28 NPPs under construction. However, domestic uranium mining supplying is currently less than a quarter of nuclear fuel demands. This paper investigated and summarized the updated status of NPP industry in China and Nuclear Fuel Cycle(NFC) policy. There still remain a number of technical innovation and comprehensive challenges for this nuclear developing country in the long-term, but its large ambitions and dramatic improvements toward future should not be ignored. As shown in this paper, the most suitable approach for China to achieve both environmentally-friendly power supplying and increasing energy demands meeting simultaneously must be considered. Nuclear energy now was recognized as the most potential and optimal way of energy supply system. In addition, to accommodate such a high-speed NPP construction in China, it should also focus on when and how spent nuclear fuel should be reprocessed. Finally, the nuclear back-end fuel cycle policy should be established, taking into accounts of all costs, uranium resource security, spent fuel management, proliferation resistance and environmental impact.

  14. Applications of nuclear microprobes in the semiconductor industry

    International Nuclear Information System (INIS)

    Takai, M.

    1996-01-01

    Possible nuclear microprobe applications in semiconductor industries are discussed. A unique technique using soft-error mapping and ion beam induced current measurements for reliability testing of dynamic random access memories such as soft-error immunity and noise carrier suppression has been developed for obtaining design parameters of future memory devices. Nano-probes and small installation areas are required for the use of microprobes in the semiconductor industry. Issues arising from microprobe applications such as damage induced by the probe beam are clarified. (orig.)

  15. Recruiting Program for the Future R and D Leader in Nuclear Science and Technology

    International Nuclear Information System (INIS)

    Song, Keechan; Im, Ohsoo; Cho, Changyun; Min, Hwanki; Lee, Jungkong; Jung, Sunghyun; Kim, Jungbae; Joo, Hoyoung

    2013-05-01

    Nuclear technology export, which is represented by a nuclear research reactor, Gen-IV nuclear system development and nuclear safety research are the current key issues in the nuclear field. In order to achieve these missions in the nuclear industry, nuclear HRD(human resource development). However, recruiting of young scientists and researchers in the nuclear field has not been sufficient for last 10 years. Moreover, many experienced persons have been retired during this period. Under these circumstances, the structure of the nuclear experts wind up with vary distorted one. As one of comprehensive countermeasures, the recruiting program for the future R and D leaders come to issues. The human network to lead future R and Ds in the nuclear science and technology is set up, and this network is persistantly maintained and expanded to recruit potential leaders in the nuclear R and D and industry. As one of these strategy and plans for recruiting competent young scientists, who are studying in the U. S., the 2 times briefing meeting were held, and human networking and expertise DB for more than 300 participants were established

  16. Women in the new era of nuclear power industry

    International Nuclear Information System (INIS)

    Junko Ogawa

    2009-01-01

    In modern society, it is important that men and women share and equally participate in every aspect of society. Nevertheless the field of nuclear energy and radiation technology is traditionally a man-centric?industry, so women make up very small minority. However, recently even in this nuclear industry, we can sometimes see the phenomena that women are playing an active part.The nuclear industry has a big impact on society. It is necessary that we are accountable for all information given out to the public and we listen and respond to the public's concern. We do this so that nuclear technology will be able to grow and develop smoothly. In such area as better understanding, women working as nuclear engineers, scientists or communicators will be able to act in a significant role because women in general have excellent ability in communication and networking. Women in Nuclear, WiN is a worldwide association for the professional women working in the nuclear energy and radiation applications. WiN was founded in 1993, by European women involved in nuclear industry among the mood of anti-nuclear movement after the Chernobyl accident. The goals of WIN are to improve proper understanding of nuclear energy among the general public by presenting the factual information and to empower members' ability by world-wide exchange of lessons and human relationship. According to the recent data, there are 74 countries with at least one WiN member. and 38 chapters (countries/regions/organizations) that have WiN formal chapter like WIN-Japan, WIN-Korea, WIN-US, for examples. The registered members of WiN Global is about 2500. My presentation will introduce recent activities and topics of WiN Global and WiN Japan. I hope this will be able to convey that women working in nuclear field are indeed gaining in their brilliance and carrying out their mission steadily in our industry now and in the future. (Author)

  17. U.S. nuclear industry

    International Nuclear Information System (INIS)

    Sherman, R.

    1979-01-01

    At present, 72 power reactors are in the condition of being able to operate in U.S., and the total installation capacity has reached 55 million kW, which is equivalent to about 9.5% of the total power generation capacity in U.S. The nuclear power stations produced 12.5% of the total electricity consumption in 1978. Especially in the north eastern part of the U.S., the nuclear power generation occupied 42% of the total power generation at the time of recent peak load, and 47 million barrels of crude oil and 517 million dollars of foreign currency were able to be saved. Moreover, 96 plants amounting to 105 million kW are under construction, and 30 plants of 35 million kW were ordered. Electric power companies, nuclear reactor makers, nuclear fuel and other related industries believe the merits of nuclear power generation and expect that it will flourish if a certain problem is solved. Especially serious problem to which the U.S. nuclear industry is facing now is the problem of uncertainty. Many orders of nuclear power plants have been canceled, and the constructions have been postponed. The capability of the U.S. nuclear industry to construct more than the required facilities, and its extent and the necessary conditions have been investigated by the Atomic Industrial Forum. The important national and international problems of atomic energy are discussed. (Kako, I.)

  18. The effect of costs on the future of nuclear power

    International Nuclear Information System (INIS)

    Walske, C.

    1984-01-01

    The author discusses the future of the nuclear power industry from an economics and cost-factor point of view, from the point of view of plant management, as it affects and requires personnel training, as R and D cost and competition is involved, as end-user cost is involved, and as efficiency and cost effectiveness of nuclear power fare in comparison with other sources of electrical energy

  19. The nuclear industry in Canada

    International Nuclear Information System (INIS)

    Anderson, D.; Broughton, W.

    1992-01-01

    The nuclear industry in Canada comprises three identifiable groups: (1) Atomic Energy of Canada Limited (AECL), (2) electrical utilities that use nuclear power plants, (3) private engineering and manufacturing companies. At the end of World War II, AECL was charged with investigating and developing peaceful uses of atomic power. Included in the results is the Canada deuterium uranium (CANDU) reactor, a peculiarly Canadian design. The AECL maintains research capability and operates as the prime nuclear steam supply system supplier. Utilities in three Canadian provinces operate nuclear power plants, New Brunswick, Quebec, and Ontario, with the majority in Ontario. From the beginning of the nuclear program in Canada, private industry has been an important partner to AECL and the utilities, filling roles as manufacturing subcontractors and as component designers. The prime objective of this paper is to illuminate the role of private industry in developing and maintaining a competitive world-class nuclear industry

  20. Directory of the French nuclear industry

    International Nuclear Information System (INIS)

    2002-10-01

    This directory includes data sheets on the French companies operating in the nuclear industry. It begins with an introduction containing information on the French nuclear industry: 1 - nuclear power development in France (national energy plan, history, organization, economic advantages, reactors); 2 - French operator: Electricite de France (EdF); 3 - the industry (Areva, Cogema, mining activities, uranium chemistry and enrichment, processing, recycling, engineering, services, Framatome ANP); 4 - R and D and knowledge dissemination: French atomic energy commission (CEA); 5 - nuclear safety, security, control and regulation: nuclear safety authority (ASN), general direction of nuclear safety and radioprotection (DGSNR), institute of radioprotection and nuclear safety (IRSN), radioactive wastes, ANDRA's role; 6 - associations: French atomic forum (FAF), French nuclear industry trade association (GIIN), French nuclear energy society (SFEN), French radiation protection society (SFRP). Then, the data sheets of the directory follows. (J.S.)

  1. Dutch industry prepares for the future

    International Nuclear Information System (INIS)

    Anon.

    1978-01-01

    In a review of the Dutch nuclear industry descriptions are given of the contributions of the following: Rotterdam Dockyard Company (RDM), manufacturers of nuclear pressure vessels; Rheine-Schelde-Verolme and Comprimo BV who co-operate in the field of nuclear engineering and turnkey power plants; Neeratom, which leads the industry in the SNR fast reactor project; and Royal Schelde an engineering company with many activities in the nuclear engineering field, and particularly in welding technology. (UK)

  2. Situation and development trend of nuclear power and uranium industry in the united states and Russia

    International Nuclear Information System (INIS)

    Tan Chenglong

    2005-01-01

    This paper introduces the situation, trend of nuclear electrical and uranium industry in the United States and Russia. The United States and Russia are the two biggest countries in the world which generated nuclear power earliest. After 40 years' development, nuclear power in the United States and Russia are approximately 20%, 11% respectively of the total generation capacity in 2001. In the United States, only 6% of the nuclear power consumed uranium resource is domestic, in Russia about half of its uranium production is for export. Due to the collision between the energy development and environment protection, nuclear power in USA is still strong, but the uranium industry declines. In the future, uranium production for nuclear power in the United States will depend on the international market and the uranium storage of different levels. On the basis of pacifying people and making the country prosper, Russia has established their great plans for nuclear power with their substantial uranium resources. The author considers the supply and demand of uranium industry will remain balanced in the future decade on the whole, despite the United States and Russia's trend of uranium industry could take a major effect on uranium industry to the world. (authors)

  3. Nuclear energy has a future

    International Nuclear Information System (INIS)

    Sorin, F.

    2012-01-01

    Nuclear energy appears to be a main asset to France in the context of the worldwide economic slump. Nuclear power provides a cheap electricity that spares the buying power of households and increases the competitiveness of French enterprises. Nuclear industry with major companies like EDF, AREVA and CEA and 450 small and medium-sized enterprises, represents a core resistant to industrial decline. Nuclear industry is a good provider of work and globally it represents 2% of all the jobs in France. Concerning the trade balance, nuclear power plays twice; first by exporting equipment and services for a value of 7 billions euros a year and secondly by sparing the cost of energy imports that would be necessary if nuclear power was not here which is estimated to 20 billions euros a year. (A.C.)

  4. Some reminiscences and lessons of 50 years of the nuclear industry

    International Nuclear Information System (INIS)

    Hill, J. Sir

    2000-01-01

    The past 50 years have seen many changes in the nuclear industry. This paper looks back, first to the early years, followed by the birth of the civil nuclear programme and international enterprises, and then moves on to discuss reactor development. Finally, the paper outlines the past problems of waste disposal, including the political influences of the 1970s and 1980s, and the dilemmas facing future nuclear waste disposal. (author)

  5. Applications of neutron radiography for the nuclear power industry

    Energy Technology Data Exchange (ETDEWEB)

    Craft, Aaron E.; Barton, John P.

    2016-11-01

    The World Conference on Neutron Radiography (WCNR) and International Topical Meeting on Neutron Radiography (ITMNR) series have been running over 35 years. The most recent event, ITMNR-8, focused on industrial applications and was the first time this series was hosted in China. In China, more than twenty new nuclear power plants are in construction and plans have been announced to increase the nuclear capacity further by a factor of three within fifteen years. There are additional prospects in many other nations. Neutron tests were vital during previous developments of materials and components for nuclear power applications, as reported in this conference series. For example a majority of the 140 papers in the Proceedings of the First WCNR are for the benefit of the nuclear power industry. Included are reviews of the diverse techniques being applied in Europe, Japan, the United States, and at many other centers. Many of those techniques are being utilized and advanced to the present time. Neutron radiography of irradiated nuclear fuel provides more comprehensive information about the internal condition of irradiated nuclear fuel than any other non-destructive technique to date. Applications include examination of nuclear waste, nuclear fuels, cladding, control elements, and other critical components. In this paper, the techniques developed and applied internationally for the nuclear power industry since the earliest years are reviewed, and the question is asked whether neutron test techniques can be of value in development of the present and future generations of nuclear power plants world-wide.

  6. Responsability of nuclear industry

    International Nuclear Information System (INIS)

    Cadiz Deleito, J.C.

    1985-01-01

    Since the beginning of nuclear industry, civil responsibility with damages to the public health and properties was a critical problem, because the special conditions of this industry (nuclear accident, damages could be very high but probability of these events is very low). Legal precepts, universally accepted, in the first 60 years for all countries interested in nuclear energy are being revised, then 20 years of experience. The civil responsibility limited is being questioned and indemnities updated. (author)

  7. Nuclear process steam for industry: potential for the development of an Industrial Energy Park adjacent to the Bruce Nuclear Power Development

    Energy Technology Data Exchange (ETDEWEB)

    Seddon, W A

    1981-11-01

    This report summarizes the results of an industrial survey jointly funded by the Bruce County Council, the Ontario Energy Corporation, Atomic Energy of Canada Limited and conducted with the cooperation of Ontario Hydro and the Ontario Ministry of Industry and Tourism. The objective of the study was to identify and assess the future needs and interest of energy-intensive industries in the concept of an Industrial Energy Park adjacent tof the Bruce Nuclear Power Development. The proposed Energy Park would capitalize on the infrastructure of the existing CANDU reactors and Ontario Hydro's proven and unique capability to produce steam, as well as electricity, at a cost currently about half that from a comparable coal-fired station.

  8. The future of nuclear energy in Europe

    International Nuclear Information System (INIS)

    Polie, P.

    1996-01-01

    An overview of current situation and future trends in nuclear energy production in Europe is made. Main factors characterizing differences in atomic policy of each particular European country are discussed. They are: readiness of the governments to implement a long-term energy policy; technical, economical and energy aspects; public opinion. Future development of new power plants is connected with overproduction of electricity, safety operation of present NPP, reduction of CO 2 emissions and public opinion. The energy policy of the European Union is also discussed and the necessity of transparency in industrial strategy of the governments is outlined

  9. Industrial nuclear property

    International Nuclear Information System (INIS)

    Lepetre, M.

    1976-01-01

    The first requests for patents for the use of nuclear power filed in France in 1939. This paper reviews the regulations on industrial nuclear property in various countries. The patenting system in several socialist countries is characterized by the fact that inventions on the production and use of radioactive materials may not be patented. This equally applies in India. In the United States, this type of invention may be patented except for those involving military uses and which must be notified to the federal authorities. In France, all industrial nuclear property is grouped under the same body, Brevatome, created in 1958, which enables the allocation of rights to be negotiated between the different interested parties, the Atomic Energy Commission (CEA), Electricite de France (EDF) and private industry. Under the Euratom Treaty, all inventions, even those governed by secrecy in Member countries, must be communicated to the Commission of the European Communities. (NEA) [fr

  10. Spanish nuclear industry

    International Nuclear Information System (INIS)

    1994-01-01

    In this book published to commemorate the twentieth anniversary of the Spanish Nuclear Society, it is included a report on the Spanish Nuclear Industry. The Spanish Companies and Organizations in nuclear world are: CIEMAT, Empresarios Agrupados, ENRESA, ENUSA, ENDESA, Grupo Iberdrola, LAINSA, INITEC AND TECNATOM. Activities, history and research programs of each of them are included

  11. 2. JAPAN-IAEA workshop on advanced safeguards technology for the future nuclear fuel cycle. Abstracts

    International Nuclear Information System (INIS)

    2009-01-01

    This international workshop addressed issues and technologies associated with safeguarding the future nuclear fuel cycle. The workshop discussed issues of interest to the safeguards community, facility operators and State Systems of accounting and control of nuclear materials. Topic areas covered were as follows: Current Status and Future Prospects of Developing Safeguards Technologies for Nuclear Fuel Cycle Facilities, Technology and Instrumentation Needs, Advanced Safeguards Technologies, Guidelines on Developing Instrumentation to Lead the Way for Implementing Future Safeguards, and Experiences and Lessons learned. This workshop was of interest to individuals and organizations concerned with future nuclear fuel cycle technical developments and safeguards technologies. This includes representatives from the nuclear industry, R and D organizations, safeguards inspectorates, State systems of accountancy and control, and Member States Support Programmes

  12. Computer aided design for the nuclear industry

    International Nuclear Information System (INIS)

    Basson, Keith

    1986-01-01

    The paper concerns the new computer aided design (CAD) centre for the United Kingdom nuclear industry, and its applications. A description of the CAD system is given, including the current projects at the CAD centre. Typical applications of the 3D CAD plant based models, stress analysis studies, and the extraction of data from CAD drawings to produce associated documentation, are all described. Future developments using computer aided design systems are also considered. (U.K.)

  13. The future of the nuclear option

    International Nuclear Information System (INIS)

    Frost, B.R.T.

    1992-01-01

    This paper reports on the future of the nuclear option. No nuclear power reactors have been ordered in the U.S.A. since 1975, but the number of operating reactors has increased to the 115 operating today. The demand for electric power continues to grow. At this time, concern over the environmental effects of fossil fuels has grown; global warming and acid rain effects are major determinants of energy policy. In these circumstances nuclear power may be the only viable option to meet the growing demand for electricity. In the past decade the nuclear power industry has addressed its major critics by standardizing designs, improving operator training, and developing safe methods of disposing of waste products. Fast breeder reactors have taken a new lease on life through the American Integral Fast Reactor (IFR) design which is inherently safe, proliferation resistant, and helps the waste-disposal problem. It will probably not be commercially available until well into the next century. The extension of reactor life raises questions of long-term thermal and radiation effects

  14. Industry, university and government partnership to address research, education and human resource challenges for nuclear industry in Canada

    International Nuclear Information System (INIS)

    Mathur, R.M.

    2004-01-01

    Technology. Each of the above six NSERC-UNENE Industrial Research Chairs are tenured positions, funded at 2.0 M dollars or more for first five years. The Chairs may be subsequently renewed. A large number of graduate students are already enrolled with Professors Holt, Jiang and Pandey. In anticipation of receiving Ontario Council of Graduate Studies accreditation for the course-based M. Eng. Degree in Nuclear Engineering, the following courses have already been offered to a typical class of 20 students: Reactor Physics; Nuclear Plant Systems and Operations; Nuclear Reactor Safety Design; Thermal Hydraulics. In addition to these, courses to be offered in near future include: Engineering Risk Analysis; Reactor Chemistry and Corrosion; Nuclear Materials; Control, Instrumentation and Electrical Power Systems; Nuclear Waste Management; Fuel Management; Health Physics/Radiation Protection; Power Plant Thermodynamics; Codes, Standards and Jurisdictions; and Business Management. M.Eng. Courses are delivered in flexible format to suit distant faculty and part-time students. UNENE, an industry driven partnership of nuclear industry, universities and governments, created to address the future challenge of research, education and human resources in Canada, has made an impressive start. (author)

  15. Situation and role of industrial fields in nuclear fusion reactor development

    International Nuclear Information System (INIS)

    Suzuki, Gen-ichi

    1983-01-01

    Japan Atomic Industrial Forum (JAIF) established the nuclear fusion technical committee in October, 1980, and has investigated the attitude of industrial fields in progressing nuclear fusion research and development and the measures to cooperate with national development plans. Corresponding to the new long term plan and the establishment of the basic policy for nuclear fusion research and development by Atomic Energy Commission of Japan in June, 1982, JAIF has settled the policy on the situation and role of industrial fields. In this report, first the necessity of firmly grasping the position of nuclear fusion research in atomic energy development is described, next, the present status of the research and development in Japan is reported, and it is mentioned that the role of manufacturers in reinforcing engineering has become more important in industrial fields. In the stage of the construction of a nuclear fusion reactor, the experiences in the engineering safety in fission reactors, environmental safety and system engineering will be utilized. Japanese industrial fields feature that they have made larger cooperation with national projects even in the research and development stage as compared to foreign countries. When the plan of next phase system will be promoted in the future, the cooperating methods in the past should be evaluated, investigated and improved, and the experiences in fast breeder reactors and advanced heavy water reactors should be referred to. Finally, the problems and the countermeasures in nuclear fusion development are described. (Wakatsuki, Y.)

  16. Risk-informed assessment of regulatory and design requirements for future nuclear power plants. Annual report

    International Nuclear Information System (INIS)

    2000-01-01

    OAK B188 Risk-informed assessment of regulatory and design requirements for future nuclear power plants. Annual report. The overall goal of this research project is to support innovation in new nuclear power plant designs. This project is examining the implications, for future reactors and future safety regulation, of utilizing a new risk-informed regulatory system as a replacement for the current system. This innovation will be made possible through development of a scientific, highly risk-formed approach for the design and regulation of nuclear power plants. This approach will include the development and/or confirmation of corresponding regulatory requirements and industry standards. The major impediment to long term competitiveness of new nuclear plants in the U.S. is the capital cost component--which may need to be reduced on the order of 35% to 40% for Advanced Light Water Reactors (ALWRS) such as System 80+ and Advanced Boiling Water Reactor (ABWR). The required cost reduction for an ALWR such as AP600 or AP1000 would be expected to be less. Such reductions in capital cost will require a fundamental reevaluation of the industry standards and regulatory bases under which nuclear plants are designed and licensed. Fortunately, there is now an increasing awareness that many of the existing regulatory requirements and industry standards are not significantly contributing to safety and reliability and, therefore, are unnecessarily adding to nuclear plant costs. Not only does this degrade the economic competitiveness of nuclear energy, it results in unnecessary costs to the American electricity consumer. While addressing these concerns, this research project will be coordinated with current efforts of industry and NRC to develop risk-informed, performance-based regulations that affect the operation of the existing nuclear plants; however, this project will go further by focusing on the design of new plants

  17. Risk-informed assessment of regulatory and design requirements for future nuclear power plants. Annual report

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    2000-08-01

    OAK B188 Risk-informed assessment of regulatory and design requirements for future nuclear power plants. Annual report. The overall goal of this research project is to support innovation in new nuclear power plant designs. This project is examining the implications, for future reactors and future safety regulation, of utilizing a new risk-informed regulatory system as a replacement for the current system. This innovation will be made possible through development of a scientific, highly risk-formed approach for the design and regulation of nuclear power plants. This approach will include the development and/or confirmation of corresponding regulatory requirements and industry standards. The major impediment to long term competitiveness of new nuclear plants in the U.S. is the capital cost component--which may need to be reduced on the order of 35% to 40% for Advanced Light Water Reactors (ALWRS) such as System 80+ and Advanced Boiling Water Reactor (ABWR). The required cost reduction for an ALWR such as AP600 or AP1000 would be expected to be less. Such reductions in capital cost will require a fundamental reevaluation of the industry standards and regulatory bases under which nuclear plants are designed and licensed. Fortunately, there is now an increasing awareness that many of the existing regulatory requirements and industry standards are not significantly contributing to safety and reliability and, therefore, are unnecessarily adding to nuclear plant costs. Not only does this degrade the economic competitiveness of nuclear energy, it results in unnecessary costs to the American electricity consumer. While addressing these concerns, this research project will be coordinated with current efforts of industry and NRC to develop risk-informed, performance-based regulations that affect the operation of the existing nuclear plants; however, this project will go further by focusing on the design of new plants.

  18. Nuclear energy industry in Russia promoting global strategy

    International Nuclear Information System (INIS)

    Kobayashi, Masaharu

    2001-01-01

    Since former USSR disintegrated to birth new Russia on December, 1991, it already passed ten years. As Russian economic hardship affected its nuclear energy development, No.1 reactor of the Rostov nuclear power station (VVER-1000) established its full power operation on September, 2001 after passing eight years of pausing period as a Russian nuclear power station, at dull development of nuclear energy in the world. When beginning of its commercial operation, scale of nuclear power generation under operation in Russia will reach to the fourth one in the world by getting over the one in Germany. Russia also begins international business on reprocessing of spent fuel and intermittent storage. And, Russia positively develops export business of concentrated uranium and nuclear fuel, too. Furthermore, Russia shows some positive initiatives on export of nuclear power station to China, Iran and India, and development on advanced nuclear reactor and nuclear fuel cycle forecast to future. Here was introduced on international developmental development of nuclear energy industry activated recently at delayed time for this ten years. (G.K.)

  19. Nuclear Futures Analysis and Scenario Building

    International Nuclear Information System (INIS)

    Arthur, E.D.; Beller, D.; Canavan, G.H.; Krakowski, R.A.; Peterson, P.; Wagner, R.L.

    1999-01-01

    This LDRD project created and used advanced analysis capabilities to postulate scenarios and identify issues, externalities, and technologies associated with future ''things nuclear''. ''Things nuclear'' include areas pertaining to nuclear weapons, nuclear materials, and nuclear energy, examined in the context of future domestic and international environments. Analysis tools development included adaptation and expansion of energy, environmental, and economics (E3) models to incorporate a robust description of the nuclear fuel cycle (both current and future technology pathways), creation of a beginning proliferation risk model (coupled to the (E3) model), and extension of traditional first strike stability models to conditions expected to exist in the future (smaller force sizes, multipolar engagement environments, inclusion of actual and latent nuclear weapons (capability)). Accomplishments include scenario development for regional and global nuclear energy, the creation of a beginning nuclear architecture designed to improve the proliferation resistance and environmental performance of the nuclear fuel cycle, and numerous results for future nuclear weapons scenarios

  20. Capitalizing the contribution of the nuclear industry

    International Nuclear Information System (INIS)

    Donnadieu, G.

    1984-01-01

    The main contributions of the French nuclear industry to the country, and ways to make the most of them are presented. The advantages acquired include the nuclear power stations built; mastering of the combustion cycle; a powerful, well structured nuclear construction industry; and a nuclear-industrial complex giving France an important industrial potential. It is recommended that the industrial and research effort be maintained. The proposed strategy consists of defining an electronuclear program and associated economic development program and sticking to them; promoting exports; possibly merging certain industrial capacities; and strengthening the national position and independence concerning the fuel cycle [fr

  1. Enhanced security in the nuclear industry

    International Nuclear Information System (INIS)

    Frappier, G.

    2007-01-01

    This article describes the security in the nuclear industry. After 9/11, Canada's nuclear regulator - the Canadian Nuclear Safety Commission (CNSC) - determined that the entire industry (including its own organization) faced a need for significant enhancements in their approach to security.

  2. Nuclear industry chart

    International Nuclear Information System (INIS)

    Anon.

    1975-01-01

    As part of a survey on Switzerland a pull-out organisation chart is presented of the nuclear industry showing Swiss government bodies and industrial concerns. Their interests, connections with each other and their associations with international and other national organizations and firms are indicated. (U.K.)

  3. Nuclear Energy Research Initiative. Risk Informed Assessment of Regulatory and Design Requirements for Future Nuclear Power Plants. Annual Report

    International Nuclear Information System (INIS)

    Ritterbusch, S.E.

    2000-01-01

    The overall goal of this research project is to support innovation in new nuclear power plant designs. This project is examining the implications, for future reactors and future safety regulation, of utilizing a new risk-informed regulatory system as a replacement for the current system. This innovation will be made possible through development of a scientific, highly risk-informed approach for the design and regulation of nuclear power plants. This approach will include the development and.lor confirmation of corresponding regulatory requirements and industry standards. The major impediment to long term competitiveness of new nuclear plants in the U.S. is the capital cost component--which may need to be reduced on the order of 35% to 40% for Advanced Light Water Reactors (ALWRs) such as System 80+ and Advanced Boiling Water Reactor (ABWR). The required cost reduction for an ALWR such as AP600 or AP1000 would be expected to be less. Such reductions in capital cost will require a fundamental reevaluation of the industry standards and regulatory bases under which nuclear plants are designed and licensed. Fortunately, there is now an increasing awareness that many of the existing regulatory requirements and industry standards are not significantly contributing to safety and reliability and, therefore, are unnecessarily adding to nuclear plant costs. Not only does this degrade the economic competitiveness of nuclear energy, it results in unnecessary costs to the American electricity consumer. While addressing these concerns, this research project will be coordinated with current efforts of industry and NRC to develop risk-informed, performance-based regulations that affect the operation of the existing nuclear plants; however, this project will go farther by focusing on the design of new plants

  4. Nuclear Energy Research Initiative. Risk Informed Assessment of Regulatory and Design Requirements for Future Nuclear Power Plants. Annual Report

    Energy Technology Data Exchange (ETDEWEB)

    Ritterbusch, S.E.

    2000-08-01

    The overall goal of this research project is to support innovation in new nuclear power plant designs. This project is examining the implications, for future reactors and future safety regulation, of utilizing a new risk-informed regulatory system as a replacement for the current system. This innovation will be made possible through development of a scientific, highly risk-informed approach for the design and regulation of nuclear power plants. This approach will include the development and.lor confirmation of corresponding regulatory requirements and industry standards. The major impediment to long term competitiveness of new nuclear plants in the U.S. is the capital cost component--which may need to be reduced on the order of 35% to 40% for Advanced Light Water Reactors (ALWRs) such as System 80+ and Advanced Boiling Water Reactor (ABWR). The required cost reduction for an ALWR such as AP600 or AP1000 would be expected to be less. Such reductions in capital cost will require a fundamental reevaluation of the industry standards and regulatory bases under which nuclear plants are designed and licensed. Fortunately, there is now an increasing awareness that many of the existing regulatory requirements and industry standards are not significantly contributing to safety and reliability and, therefore, are unnecessarily adding to nuclear plant costs. Not only does this degrade the economic competitiveness of nuclear energy, it results in unnecessary costs to the American electricity consumer. While addressing these concerns, this research project will be coordinated with current efforts of industry and NRC to develop risk-informed, performance-based regulations that affect the operation of the existing nuclear plants; however, this project will go farther by focusing on the design of new plants.

  5. Organization of the German nuclear industry

    International Nuclear Information System (INIS)

    Anon.

    1992-01-01

    Corporate ownership within the German nuclear industry has evolved constantly during the last decade, and recent acquisitions and mergers, reunification of the country, as well as preparation for a unified European power market, have led to many significant changes during the past two years. The country's nuclear industry continues to struggle under an increasingly anti-nuclear political environment, yet nuclear power provided more than one-third of Germany's total electricity generation in 1991. As in many countries, particularly in western Europe, many German companies involved in different facets of the nuclear industry are interrelated. Usually as a means of horizontal or vertical integration, the country's nuclear utilities own, directly or indirectly, shares in uranium mining projects; conversion, enrichment, and fabrication companies; or other utilities' nuclear power plants. The utilities own partial interests in companies in supporting industries as well, including transportation firms, waste management companies, uranium broker/traders, and nuclear equipment manufacturers. While the majority of the companies owned are German, numerous investments are made in non-German firms also

  6. Nuclear science, technology and innovation in Canada - securing the future

    Energy Technology Data Exchange (ETDEWEB)

    Walker, R.S. [Atomic Energy of Canada Limited, Chalk River, ON (Canada)

    2014-07-01

    As a Tier 1 Nuclear Nation, Canada has a rich and proud history of achievement in nuclear Science, Technology and Innovation (ST&I) -- from commercializing the CANDU power system around the world, advancing fuel technology and nuclear safety, to protecting human health through nuclear medicine and cancer therapy technology. Today, the nuclear industry in Canada is actively working to secure its promising, long-term place in the world and is embracing the change necessary to fulfill the enormous potential for good of nuclear technology. For its part, the Canadian Government is taking a bold new public policy approach to nuclear ST&I, by restructuring its large, multi-faceted AECL Nuclear Laboratories. Through the restructuring, AECL, as Canada's premier nuclear science and technology organization, will be better positioned for success via an incentivized 'Government-owned-Contractor-operated', private-sector management model. The aim of this new approach is to enhance and grow high-value nuclear innovation for the marketplace, strengthen the competitiveness of Canada's nuclear sector, and reduce costs to the Government of Canada with time. This approach will play a key role in ensuring a bright future for the Canadian Nuclear Industry domestically and globally as it launches its 25-year Vision and Action Plan, where one of the priority action areas is support for a strong, forward-looking, nuclear ST&I agenda. As the new model for the Nuclear Laboratories is moved forward by the Government, with the support of AECL and industry, Canada's nuclear expertise and knowledge continue to be expanded and deepened through the work of the Laboratories' ten Centres of Excellence, where AECL's fundamental approach is guided by the reality that ST&I is needed in all aspects of the nuclear cycle, including decommissioning, waste management and environmental protection. (author)

  7. A view from the nuclear industry

    International Nuclear Information System (INIS)

    Berry, R.J.

    1989-01-01

    The Conference is reminded that the nuclear industry regards occupational radiation-induced cancer as a putative rather than a demonstrated hazard at current dose levels. Although epidemiological studies have shown possible dose-response correlation, all such studies of nuclear industry personnel show an overall risk of malignant disease lower than that for the general public. Doses to workers in the nuclear industry have been reducing since the 1970s, largely in consequence of the optimisation of radiation protection and the injunction ''to keep doses as low as reasonably achievable'' without reduction in occupational dose limits over this period. It is argued that further reduction in individual dose limits will act to increase collective dose. The nuclear industry no longer has either the highest individual average or collective radiation doses to its workforce within British industry; higher average individual doses occur in the non-coal mining industry and the collective dose to coal miners is greater than that of nuclear fuel cycle workers and comparable to the sum of collective doses to fuel cycle and power generation workers. (author)

  8. Digital transformation of nuclear industry, what improvement made in France and abroad?

    International Nuclear Information System (INIS)

    Roy, L.

    2017-01-01

    In Russia digital technologies have entered nuclear industry since long, they are not only an important tool for reducing costs but also a part of the cost itself as a digital twin of the plant is sold with the plant. This digital plant will be useful for operating the real plant in terms of maintenance and testing the procedures. In the United-States, nuclear energy faces the fierce competition of shale gas and some plant operators foresee to close nuclear stations in a near future but other plant operators think that digital technologies will be a major tool to cut by 30% their operating costs. A feature of the American nuclear industry is the important number of innovative start-ups, the NRC (Nuclear Regulatory Commission) has accepted to be involved as soon as the design phase of projects in order to ease the certification process and shorten schedules. Generally speaking the weight of engineering in the nuclear industry is more than twice as important as in other industries, so the use of digital tools has a more important positive impact in nuclear projects than in other sectors. In France the complete overhaul of nuclear reactors that is imposed by law every 10 years, is already largely based on digital technologies through the use of partial digital twins of the plant. (A.C.)

  9. Status of nuclear regulatory research and its future perspectives

    International Nuclear Information System (INIS)

    Lee, J. I.; Kim, W. S.; Kim, M. W.

    1999-01-01

    A comprehensive investigation of the regulatory research comprising an examination of the research system, its areas and contents, and the goals and financial resources is undertaken. As a result of this study, the future direction of regulatory research and its implementation strategies are suggested to resolve the current issues emerging from this examination. The major issues identified in the study are; (a) an insufficient investment in nuclear regulatory and safety research, (b) an interfacial discrepancy between similar research areas, and (c) a limitation of utilizing research results. To resolve these issues, several measures are proposed : (1) developing a lead project to establish a comprehensive infrastructure for enhancing research cooperation between nuclear organizations including institutes, industry, and universities, with an aim to improve cooperation between projects and to strengthen overall coordination functions among research projects, (2) introducing a certification system on research outcome to promote the proliferation of both research results themselves and their application with a view to enhancing the research quality, (3) strengthening the cooperative system to promote the international cooperative research, and (4) digitalizing all documents and materials relevant to safety and regulatory research to establish KIMS (knowledge and information based management system). It is expected that the aforementioned measures suggested in this study will enhance the efficiency and effectiveness of both nuclear regulatory and safety research, if they are implemented after deliberating with the government and related nuclear industries in the near future

  10. The World Nuclear Industry Status Report 2013

    International Nuclear Information System (INIS)

    Schneider, Mycle; Froggatt, Antony; Hosokawa, Komei; Thomas, Steve; Yamaguchi, Yukio; Hazemann, Julie; Bradford, Peter A.

    2013-07-01

    Two years after the Fukushima disaster started unfolding on 11 March 2011, its impact on the global nuclear industry has become increasingly visible. Global electricity generation from nuclear plants dropped by a historic 7 percent in 2012, adding to the record drop of 4 percent in 2011. This World Nuclear Industry Status Report 2013 (WNISR) provides a global overview of the history, the current status and the trends of nuclear power programs worldwide. It looks at nuclear reactor units in operation and under construction. Annex 1 provides 40 pages of detailed country-by-country information. A specific chapter assesses the situation in potential newcomer countries. For the second time, the report looks at the credit-rating performance of some of the major nuclear companies and utilities. A more detailed chapter on the development patterns of renewable energies versus nuclear power is also included. Annex 6 provides an overview table with key data on the world nuclear industry by country. The 2013 edition of the World Nuclear Industry Status Report also includes an update on nuclear economics as well as an overview of the status, on-site and off-site, of the challenges triggered by the Fukushima disaster. However, this report's emphasis on recent post-Fukushima developments should not obscure an important fact: as previous editions (see www.WorldNuclearReport.org) detail, the world nuclear industry already faced daunting challenges long before Fukushima, just as the U.S. nuclear power industry had largely collapsed before the 1979 Three Mile Island accident. The nuclear promoters' invention that a global nuclear renaissance was flourishing until 3/11 is equally false: Fukushima only added to already grave problems, starting with poor economics. The performance of the nuclear industry over the year from July 2012 to July 2013 is summed up in this report

  11. Nuclear power in the United States: public views and industry actions

    International Nuclear Information System (INIS)

    Poncelet, C.G.

    1981-01-01

    The author describes the public policy environment that surround the nuclear power program in the United States and the social implications as an expression of the public opinion, the mass media as a source of information and the organized opposition movements with their socio-political motivations. The political climate after the new Republican government is also analysed as well as the communication efforts of the nuclear industry to ascertain the need of assertive programs and the sense of cooperation and commitment on the part of both the nuclear and electric utility industries. The general situation is characterized on the one hand by the growing acknowledgement of the need for nuclear power development in an economy dominated by the oil crisis; on the other hand, it is the financial crisis faced by electric utilities which directly impacts on this future development. (AF)

  12. The trilogy nuclear technology-quality-reliability in nuclear energy: the interface technical regulation/industrial norm in the nuclear industry

    International Nuclear Information System (INIS)

    Costa, Jose Ribeiro da

    1995-01-01

    In this paper, it is tried to find out a compatibility among Regulations (mandatory) documents governing Quality Assurance Requirements for the Nuclear Industry (like IAEA/50-C-QA, IAEA/50-SG-QA1, IAEA/50-SG-QA7, and others), with similar documents prescribing same requirements for COnventional Industry (like ISO/900 Series), using the technical support of the prescriptions contained in the IAEA/TR-328 documents. Harmonization and compatibility of these documents is a great deal for Industries engaged -directly or indirectly - in the Nuclear Technology, taking into account that such compatibility can avoid troubles for already ISO/9000 Series Certified Industries in the fulfillment of its contract requirements in the nuclear field. Its also represents in that field a symbiosis between Technical Regulations (mandatory) and Voluntary Standards (Industrial, Consensual Standards). (author). 7 refs., 1 fig., 1 tab

  13. Risk management of knowledge loss in nuclear industry organizations

    International Nuclear Information System (INIS)

    2006-07-01

    Maintaining nuclear competencies in the nuclear industry and nuclear regulatory authorities will be one of the most critical challenges in the near future. As many nuclear experts around the world are retiring, they are taking with them a substantial amount of knowledge and corporate memory. The loss of such employees who hold knowledge critical to either operations or safety poses a clear internal threat to the safe and reliable operation of nuclear facilities. This publication is intended for senior and middle level managers of nuclear industry operating organizations and provides practical information on knowledge loss risk management. The information provided in this it is based upon the actual experiences of Member State operating organizations and is intended to increase awareness of the need to: develop a strategic approach and action plans to address the potential loss of critical knowledge and skills; provide processes and in conducting risk assessments to determine the potential for loss of critical knowledge caused by the loss of experienced workers; and enable nuclear organizations to utilize this knowledge to improve the skill and competence of new and existing workers In 2004, the IAEA published a report entitled The Nuclear Power Industry's Ageing Workforce: Transfer of Knowledge to the Next Generation (IAEA-TECDOC-1399). That report highlighted some of the knowledge management issues in Member States resulting from the large number of retiring nuclear power plant personnel who had been involved with the commissioning and initial operation of nuclear power plants. This publication complements that report by providing a practical methodology on knowledge loss risk management as one element of an overall strategic approach to workforce management which includes work force planning, recruitment, training, leadership development and knowledge retention

  14. Special issue: the nuclear industry in Europe

    International Nuclear Information System (INIS)

    Anon.

    1982-01-01

    This special issue contains papers on the following topics: French nuclear policy; nuclear energy development in Europe; nuclear diversification; Alsthom-Atlantique in the nuclear field; 1981 nuclear electricity generation; EDF siting policy; the N4 model of the 1300 MW series; Creys-Malville; the nuclear industry in Europe; pumps in the nuclear industry [fr

  15. Future scenarios for the development of nuclear power. How will nuclear power develop over the next twenty to forty years?

    International Nuclear Information System (INIS)

    Pickett, Susan E.

    2009-01-01

    Nuclear power technology has developed significantly over the past 60 years to the point that today it supplies the world with 15% of its electricity; and there are plans for continued development. However, the continued growth of nuclear power is not without challenges. The nuclear industry must remain competitive in the face of challenges ranging from environmental considerations and proliferation concerns to ensuring safe and often transparent operations. Understanding these and other issues, as well as their underlying causes, can help the industry leaders create more robust strategies and effectively implement nuclear fuel cycle decisions. Robust strategies are ones that can be effective even when circumstances change, due to events such as opposition, new scientific information, changes in resource availability, or introduction of competing technologies. Scenario planning is tool which can help planners and decision makers create a strategic conversation about the future and how to manage and plan in a time of accelerated change and complexity. In this paper, scenario planning is introduced and the development of nuclear power is examined against the back drop of four future scenarios, specifically looking at how variations in environmental quality, resource availability, security and proliferation, and safety may affect the development of nuclear power. The scenarios discussed provide a starting point to improve the understanding of issues and opportunities facing the global nuclear power industry and ultimately, to improve strategies for technology development. Such scenarios may be employed as a basis for collaboration and communication amongst the stakeholders involved in the development of nuclear technology. (author)

  16. Current status and future prospective of nuclear industry in Romania

    International Nuclear Information System (INIS)

    Lucaciu, Gheorghe; Chirica, Teodor

    2004-01-01

    After the collapse, in 1989, of the centralized communist regimes in the Central and Eastern Europe, the Romanian economy experienced significant changes. By 2001 the industrial production decline caused a dramatic drop in the country's electricity consumption. Despite it, the power sector has to cope with many difficulties to cover the electricity demand. Under the circumstances of the economy restructuring, the problems of the Romanian power sector became acute: most of thermal power units are aged (older than 20 years), with low efficiency, low performance indicators, high costs, large staff number; the dependence on imported fossil fuel is high; the environment protection requirements - emphasized by the European institutions - not met; lack of the capital required for fixing these questions. The lack of financial sources at the thermal power plants made the purchase of fuel from import extremely complicated; also, the maintenance programs at the power plants could not be accomplished. It was very difficult to attract investment funds for rehabilitation work or for construction of new capacities in the power plants. Meanwhile, in the last three years, a gradual recovery of the Romanian industry occurred. Now, it becomes less energy intensive, but the growth of the industrial production and the increasing household electricity demand induced higher energy consumption. The development of the nuclear power sector enhances these tendencies. The entire sector is under a reorganization process, with the final purpose to increase efficiency, privatizing the electrical distribution, thermal power plants, and some hydro and support services

  17. The present and future of nuclear energy and industry in the USSR

    International Nuclear Information System (INIS)

    Anon.

    1991-01-01

    This article is an edited version of a speech presented by Vitaly F. Konovalov, Minister of the Soviet Union's Ministry of Atomic Energy and Industry. Mr. Kovovalov presented the speech on April 8, 1991 to the 24th Annual Conference of the Japan Atomic Industrial Forum in Tokyo, Japan. In his speech, he notes that the current number of plants in operation (46) accounted for 12.5% of the electricity generated in the USSR. According to an energy policy announced in the early 1980's, by the year 2000 electricity generated at nuclear plants would reach 40% of the total generation. Changes in attitude brought about by Chernobyl resulted in a slowdown in the development of nuclear plants, and over 100,000 MWe of new capacity have been abandoned in some stage of design or construction. Current plans call for 7,000 MWe of new capacity between the years 1991 and 1995, and 12,600 MWe over the next five-year period. Accelerated growth is anticipated between 2000 and 2010. It is stated that this growth will be in the area of new designs with enhanced safety features and better economic features. The speaker also notes the impact of decommissioning and nucelar wastes

  18. The nuclear industry in France

    International Nuclear Information System (INIS)

    Degot, D.

    1981-02-01

    The French nuclear industry is organized around the following main participants: - The E.D.F., owners, industrial architects and operators of the power stations, - The C.E.A. for research and development, with its subsidiary the COGEMA, who deal with all problems involving the fuel cycle, - The Industry with FRAMATOME in charge of the manufacture of nuclear boilers, and ALSTHOM-ATLANTIQUE in charge of turbo-generator units. This paper deals with the activities covered by FRAMATOME and its industrial environment. The standardization of PWR power stations built by French industry and the possibilities of exporting PWR power stations are given a brief mention [fr

  19. Germany, an industrialized country, and nuclear power

    International Nuclear Information System (INIS)

    Wartenberg, L. v.

    2001-01-01

    The question of the future of nuclear power in Germany, and the agreement between the federal government and industry of June 14, 2000 about the future operation of plants, are important far beyond the confines of this sector of industry. In times of economic globalization and of competition among national economies, questions of location have become key issues in meeting future challenges. For this purpose, there must be more freedom for the economy; entrepreneurial action must be regarded as a positive duty to be fulfilled by society. Personal responsibility and competition, with room for self-responsibility, must not be hampered further by interventions and red tape. This applies to all sectors of the economy, in particular to the power supply sector, as is borne out by the current debate about the quota regulations for cogeneration systems (CHP). Social justice, one of the most important unifying forces in this modern society, must be interpreted as solidarity. This solidarity must be sought also in an international context. Supplying the basic necessities to all inhabitants of this earth requires all sources of energy, also in the interest of achieving sustainability. This term should be interpreted, above and beyond its meaning in environmental protection, as a concept in all areas of politics, implying that the future must be taken into account in all decisions made today. In the light of the problems associated with establishing a worldwide sustainable power supply system, inter alia meeting the objectives of climate protection, continuity of supply, and economic viability, there is no way around nuclear power. Free decisions are required in the sense of sustainable economic management, and the political boundary conditions must be created for this to be possible. (orig.) [de

  20. Assessment of demand for and supply of qualified manpower for the nuclear industry

    International Nuclear Information System (INIS)

    Morelle, J.

    1993-01-01

    The OECD Nuclear Energy Agency recently published a study which presents the results of a pioneering survey of the demand for and the supply of qualified manpower in various sectors of the nuclear industry (including medicine), and in the related areas of regulation and education in 12 OECD countries. The current manpower situation is presented and the future demand is reviewed. Present and future activities of OECD countries to ensure a balance between supply and demand of qualified manpower are discussed

  1. Future perspectives of human resources in nuclear technology - The Korean case

    International Nuclear Information System (INIS)

    Min, B.J.

    2007-01-01

    . Experience shows that training without continued application and without long term commitment of a coordinated core of participants and programmes, is virtually worthless. HRD management must be a dynamic process that includes not only basic education and specific training but also looks to other spin-off learning/industries and to basic inputs/learning as part of the process. Comprehensive HRD and M policy and strategies for nuclear energy is one of the essential and priority issues for long-term nuclear energy development. Since a nuclear power programme cannot exist in a vacuum, future HRD and M schemes for nuclear energy should include a broad base of disciplines, sciences and technologies, perhaps within a framework of national sustainable development goals, generally considered to include economics, environment and social concerns. Within this context, areas of interest would include technical performance, nuclear science and engineering, as well as matters related to the economic performance of new nuclear generating capacities compared to alternatives (standards, economics, finance, liability, risks, internalization of externalities), environmental protection (emissions, wastes, decommissioning), social and political issues, energy demand and supply, inter generational concerns about long-lived wastes and resource depletion, supply security considerations, and innovation. The medium and long term nuclear human resources projections to be developed here for the Republic of Korea up to 2030 are not predictions but rather scenarios of plausible ranges of future nuclear human resource requirements based on nuclear power generation projections reflecting a variety of economic, social and environmental driving factors. Both the LOW and HIGH projections are derived from Input-Output analysis based on a review of national nuclear technology development programmes and plans. (author)

  2. Rewriting the history: a new future for the nuclear energy in United Kingdom?

    International Nuclear Information System (INIS)

    Woodman, B.

    2009-01-01

    From ends of the ninety, the new nuclear energy has been rejected three times like an option of viable energy generation for United Kingdom: once during the privatization of the electric supply industry and twice during the subsequent revisions to the energy politicians carried out in 2003. Nevertheless, three years more late, a new debate around the energy politics gave an unusual turning in the industry destination, characterized by the firm consideration in the political calendar about the new reactors development, as well as of governmental politicians guided to impel it. This recent interest arises of restlessness regarding the future security of the supply and to the necessity of reducing the carbon dioxide emissions of United Kingdom. With the purpose of obtaining the sufficient support of civil politicians and investors for the new construction project, the industry will have to devise convincing arguments to prove that it has already solved those problems that it suffered in the past and, also that deserves to receive a special treatment in the liberated market of the electricity. This document synthesizes the structure of the nuclear industry in United Kingdom, some recent historical data and the reasons for those that the new nuclear reactors were not very received in the past. It also indicates the measures that have taken in recent times to modify that perspective. Finally, it analyzes the possible future of the nuclear energy at long term in United Kingdom. (Author)

  3. Nuclear industry: a young sector of excellence

    International Nuclear Information System (INIS)

    Varin, P.

    2017-01-01

    Nuclear industry is the 3. industrial sector in France and is the good reason why the French energy mix is largely carbon-free. The medium term challenges that faces nuclear industry in this country is first to succeed the extensive refit of nuclear power plants with a view on getting the extension of their operating life and secondly to recruit the skilled staff nuclear industry needs. About 8000 jobs dispatched in the 2500 enterprises that forms the nuclear sector will be available each year up to 2020. The age pyramid shows that numerous retirements are expected in the years to come so the issue of skill and knowledge transfer is looming. 25% of recruitment will be made on the basis of work-study contracts particularly for technical jobs. Concerning recruitment, the nuclear sector is competing with other high-tech sectors like aeronautics or the automobile sector, which make things harder. The image that nuclear industry wants to promote of itself is the image of a young, modern, high-tech industry that appeared less than 50 years ago and whose main purpose is to provide a carbon-free electricity to an avid world. (A.C.)

  4. Commercial nuclear power: Assuring safety for the future

    International Nuclear Information System (INIS)

    Ramsey, C.B.; Modarres, M.

    1998-03-01

    This timely book offers insights into the benefits of nuclear power as well as the technological and environmental challenges facing the nuclear industry. Containing the results of worldwide scientific studies and industrial site visits, the book represents a timely focus on the applications of commercial nuclear power, the potential benefits to be gained from contained nuclear use, the environmental risks of nuclear power, and the prevention of nuclear accidents.This timely book offers insights into the benefits of nuclear power as well as the technological and environmental challenges facing the nuclear industry. Containing the results of worldwide scientific studies and industrial site visits, the book represents a timely focus on the applications of commercial nuclear power, the potential benefits to be gained from contained nuclear use, the environmental risks of nuclear power, and the prevention of nuclear accidents

  5. Tenth International RETRAN Conference Overview: RETRAN's Role in Supporting the Nuclear Industry's Vision

    International Nuclear Information System (INIS)

    Agee, Lance J.

    2003-01-01

    The nuclear industry's current 'vision' for 2020 is for growth in U.S. nuclear to a 23% share of generation in 2020. To support this vision, the Electric Power Research Institute's Nuclear Power Division has developed a strategic bridge plan. The major objectives of the plan are discussed. Of key importance is the U.S. Nuclear Regulatory Commission (NRC) staff's proposed framework for risk-informed regulations. RETRAN-3D will undoubtedly be used by the industry to support Risk-Informed Regulation, specifically option 3.The reason that RETRAN-3D is the most logical tool to support Risk-Informed Regulation is that in January 2001 the NRC issued a safety evaluation report (SER) on RETRAN-3D. The significance of the SER to the RETRAN community is described, and a list of the most important SER conditions provided.Next, the new and unique applications of RETRAN-3D are referenced. Finally, discussion of the future direction of safety software indicates what the author feels is needed to adequately support both existing plant upgrades and future plant designs

  6. Spain's nuclear components industry

    International Nuclear Information System (INIS)

    Kaibel, E.

    1985-01-01

    Spanish industrial participation in supply of components for nuclear power plants has grown steadily over the last fifteen years. The share of Spanish companies in work for the five second generation nuclear power plants increased to 50% of total capital investments. The necessity to maintain Spanish technology and production in the nuclear field is emphasized

  7. The nuclear electricity generating industry in England and Wales post-privatisation

    International Nuclear Information System (INIS)

    Johnson, C.B.

    1992-01-01

    This paper presents an overview of the new legal framework within which the nuclear generating industry has operated in England and Wales since 31 March 1990. It describes the formation of Nuclear Electric plc and the licensing arrangements, including the various obligations which have been placed upon Nuclear Electric by virtue of its Generation Licence. The impact of competition law is outlined, together with the commercial arrangements including electricity pooling and some of the other more important agreements which Nuclear Electric has entered into. Finally, the Paper discusses some of the constraints under which Nuclear Electric operates, and summarises Government policy towards nuclear power and its future prospects in the United Kingdom. (author)

  8. Learning-curve estimation techniques for nuclear industry

    Energy Technology Data Exchange (ETDEWEB)

    Vaurio, J.K.

    1983-01-01

    Statistical techniques are developed to estimate the progress made by the nuclear industry in learning to prevent accidents. Learning curves are derived for accident occurrence rates based on acturial data, predictions are made for the future, and compact analytical equations are obtained for the statistical accuracies of the estimates. Both maximum likelihood estimation and the method of moments are applied to obtain parameters for the learning models, and results are compared to each other and to earlier graphical and analytical results. An effective statistical test is also derived to assess the significance of trends. The models used associate learning directly to accidents, to the number of plants and to the cumulative number of operating years. Using as a data base nine core damage accidents in electricity-producing plants, it is estimated that the probability of a plant to have a serious flaw has decreased from 0.1 to 0.01 during the developmental phase of the nuclear industry. At the same time the frequency of accidents has decreased from 0.04 per reactor year to 0.0004 per reactor year.

  9. Learning-curve estimation techniques for nuclear industry

    International Nuclear Information System (INIS)

    Vaurio, J.K.

    1983-01-01

    Statistical techniques are developed to estimate the progress made by the nuclear industry in learning to prevent accidents. Learning curves are derived for accident occurrence rates based on acturial data, predictions are made for the future, and compact analytical equations are obtained for the statistical accuracies of the estimates. Both maximum likelihood estimation and the method of moments are applied to obtain parameters for the learning models, and results are compared to each other and to earlier graphical and analytical results. An effective statistical test is also derived to assess the significance of trends. The models used associate learning directly to accidents, to the number of plants and to the cumulative number of operating years. Using as a data base nine core damage accidents in electricity-producing plants, it is estimated that the probability of a plant to have a serious flaw has decreased from 0.1 to 0.01 during the developmental phase of the nuclear industry. At the same time the frequency of accidents has decreased from 0.04 per reactor year to 0.0004 per reactor year

  10. Learning curve estimation techniques for nuclear industry

    International Nuclear Information System (INIS)

    Vaurio, Jussi K.

    1983-01-01

    Statistical techniques are developed to estimate the progress made by the nuclear industry in learning to prevent accidents. Learning curves are derived for accident occurrence rates based on actuarial data, predictions are made for the future, and compact analytical equations are obtained for the statistical accuracies of the estimates. Both maximum likelihood estimation and the method of moments are applied to obtain parameters for the learning models, and results are compared to each other and to earlier graphical and analytical results. An effective statistical test is also derived to assess the significance of trends. The models used associate learning directly to accidents, to the number of plants and to the cumulative number of operating years. Using as a data base nine core damage accidents in electricity-producing plants, it is estimated that the probability of a plant to have a serious flaw has decreased from 0.1 to 0.01 during the developmental phase of the nuclear industry. At the same time the frequency of accidents has decreased from 0.04 per reactor year to 0.0004 per reactor year

  11. Double or quits?: The global future of civil nuclear energy

    International Nuclear Information System (INIS)

    Beck, Peter; Grimston, Malcolm

    2004-01-01

    Among the many disputes in the field of energy, in many countries none appear to be as acrimonious as those surrounding nuclear power. Its supporters are confident that nuclear power will have an important long-term future on the global energy scene, while its critics are equally confident that its days are numbered and that it was only developed to provide a political fig-leaf for a nuclear weapons programme. Both sides believe the other to be thoroughly biased or stupid and there is little constructive debate between them. As the disputes rage, especially over such issues as the management of nuclear waste, the economics and safety of nuclear power compared with other sources of electricity, the possible links with nuclear weapons and the attitude of the public towards the industry, decision-making is either paralysed or dominated by those who shout loudest. As a result, governments, industry and the financial sector have in recent years found it increasingly difficult to develop policy in this field. Deciding about future energy developments requires balanced and trustworthy information about issues such as the relative environmental effects of different options, the safety of installations, economics and the availability of resources. This is of particular importance now because world energy use is expected to continue to grow significantly during this century, particularly in less developed countries. In the same period, global emissions of greenhouse gases, especially carbon dioxide, will have to be severely curbed. To meet both these requirements may well involve a step change away from being able to meet growing energy needs by depending on an ever increasing supply of carboniferous fossil fuel. To address this situation, the Royal Institute of International Affairs undertook a two-year research project, aimed at providing information from the standpoint of an organization with no vested interest in either the pro or the anti camp, but close connections to

  12. Developing a nuclear industry the spanish case in managing nuclear projects

    International Nuclear Information System (INIS)

    Acero, M.; Gonzalez, A.

    1989-01-01

    There are presently 10 nuclear units in commercial operation in Spain. A further 5 units have been granted construction permits but are currently under government imposed moratorium due to an excess in generating capacity; construction for two of them however - namely the Valdecaballeros BWRs - is likely to be resumed in the near future. During 1989 the 10 operational units with a total installed capacity of 7,838 MWe are expected to supply over 40% of the total electricity generated in our country. With the exception of one gas graphite reactor, the rest are light water reactors - 7 PWRs and 2 BWRs. Although the NSSS design is imported from basically two sources - USA and Germany, the nuclear power units of the present generation recently connected to the grid have reached over 85% in local participation. This paper describes some of the basic strategies followed in Spain, leading to the success of our nuclear program. They have produced major payoffs in local participation and contributed to achieving real capabilities in the nuclear industry

  13. Human resources in the Japanese nuclear industry

    International Nuclear Information System (INIS)

    Katayama, M.

    1995-01-01

    Japan is becoming rapidly a nation with an elderly population. Japanese students are turning away from the manufacturing industries, including the nuclear industry, and turning towards more service oriented industries that are considered to be cleaner and to pay better. Studies have been performed to devise ways to attract young workers to the nuclear industry, which is projected to continue to grown under the current long range energy plants. The paper summarizes the findings and recommendations of the recent studies conducted by the nuclear industry and academic circles. All studies point out that insufficient emphasis is placed on science in the present Japanese educational programme and that implementation of effective programmes to revitalize education in science is most urgently needed to keep Japan in the forefront of high technology. Utilization of advanced computer technology and automation is promoted to improve working conditions and efficiency in the nuclear industry. In addition, the establishment of a professional status of engineers and technicians will be vital for an effective utilization of qualified workers in the nuclear industry. (author). 3 refs, 1 tab

  14. Romanian nuclear fuel program: past, present and future

    International Nuclear Information System (INIS)

    Budan, O.; Rotaru, I.; Galeriu, C.A.

    1997-01-01

    The paper presents and comments the policy adopted in Romania for the production of CANDU-6 nuclear fuel before and after 1990. In this paper the word 'past' refers to the period before 1990 and 'present' to the 1990-1997 period. The CANDU-6 nuclear fuel manufacturing started in Romania in December 1983. Neither AECL nor any Canadian nuclear fuel manufacturer were involved in the Romanian industrial nuclear fuel production before 1990. After January 1990, the new created Romanian Electricity Authority (RENEL) assumed the responsibility for the Romanian Nuclear Power Program. It was RENEL's decision to stop, in June 1990, the nuclear fuel production at the Institute for Nuclear Power Reactors (IRNE) Pitesti. This decision was justified by the Canadian specialists team findings, revealed during a general, but well enough technically founded analysis performed at IRNE in the spring of 1990. All fuel manufactured before June 1990 was quarantined as it was considered of suspect quality. By that time more than 31,000 fuel bundles had already been manufactured. This fuel was stored for subsequent assessment. The paper explains the reasons which provoked this decision. The paper also presents the strategy adopted by RENEL after 1990 regarding the Romanian Nuclear Fuel Program. After a complex program done by Romanian and Canadian partners, in November 1994, AECL issued a temporary certification for the Romanian nuclear fuel plant. During the demonstration manufacturing run, as an essential milestone for the qualification of the Romanian fuel supplier for CANDU-6 reactors, 202 fuel bundles were produced. Of these fuel bundles, 66 were part of the Cernavoda NGS Unit 1 first fuel load (the balance was supplied by Zircatec Precision Industries Inc. - ZPI). The industrial nuclear fuel fabrication re-started in Romania in January 1995 under AECL's periodical monitoring. In December 1995, AECL issued a permanent certificate, stating the Romanian nuclear fuel plant as a qualified

  15. Human capital in nuclear industry

    International Nuclear Information System (INIS)

    Anon.

    2010-01-01

    On June 7, 2010, as part of the Atomexpo 2010 exhibition, a round-table discussion took place on the topic Human capital in the nuclear industry: challenges and solutions. The article summarizes reports made during the meeting. Tatiana Kozhevnikova, deputy director general of the Rosatom Corporation, made a report about the strategy and best human resource management practices in member companies of the Corporation. She briefly described the state of the human capital in the Russian nuclear industry and outlined the key provisions of the human resource management strategy. Attendees to the round-table discussion elaborated further on the key statements of the report. The discussion has given an evidence that the Russian nuclear industry is giving an enormous importance to human resource management and is firmly intended on successfully tacking the issues associated with the provision of sufficient staff for the industry's safe and efficient development [ru

  16. Future of nuclear energy research

    International Nuclear Information System (INIS)

    Fuketa, Toyojiro

    1989-09-01

    In spite of the easing of worldwide energy supply and demand situation in these years, we believe that research efforts towards the next generation nuclear energy are indispensably necessary. Firstly, the nuclear colleagues believe that nuclear energy is the best major energy source from many points of view including the global environmental viewpoint. Secondly, in the medium- and long-range view, there will once again be a high possibility of a tight supply and demand situation for oil. Thirdly, nuclear energy is the key energy source to overcome the vulnerability of the energy supply structure in industrialized countries like Japan where virtually no fossil energy source exists. In this situation, nuclear energy is a sort of quasi-domestic energy as a technology-intensive energy. Fourthly, the intensive efforts to develop the nuclear technology in the next generation will give rise to a further evolution in science and technology in the future. A few examples of medium- and long-range goals of the nuclear energy research are development of new types of reactors which can meet various needs of energy more flexibly and reliably than the existing reactors, fundamental and ultimate solution of the radioactive waste problems, creation and development of new types of energy production systems which are to come beyond the fusion, new development in the biological risk assessment of the radiation effects and so on. In order to accomplish those goals it is quite important to introduce innovations in such underlying technologies as materials control in more microscopic manners, photon and particle beam techniques, accelerator engineering, artificial intelligence, and so on. 32 refs, 2 figs

  17. Feeding the nuclear pipeline: Enabling a global nuclear future

    International Nuclear Information System (INIS)

    Waltar, Alan E.

    2002-01-01

    Full text: There is nothing more vital to the advancement of human civilization than the abundance of usable and affordable energy. It underpins national security, economic prosperity, and global stability. Nuclear energy, which exhibits a unique combination of environmental and sustainable attributes, appears strongly positioned to play a much larger and more pivotal role in the mix of future global energy supplies than it has played in the past. Unfortunately, after a fairly rapid growth period within the industrialized nations in the 1960 to 1980 time frame, a variety of factors led to a substantial reduction in commercial nuclear power plant construction (with the possible exception of several Pacific Rim countries). This, in turn, led to a serious erosion in the enrollment patterns of nuclear engineering programs - causing alarmingly low enrollment levels in many counties by the turn of the century. Numerous studies conducted over the past five years have soberly come to the consistent conclusion that the nuclear pipeline cannot keep up with the needs of the nuclear industry. In fact, when combining the aging work force with low matriculation rates in most nuclear engineering academic programs, a huge (and unacceptable) mismatch between needs and supply is strikingly evident. This is further exasperated by the lack of meaningful efforts to capture the knowledge of the 'first nuclear era' professionals in a form that can be effectively transferred to the upcoming generation. Methods must be found to better capture the enormous body of experience already accumulated and both document it and then mentor the new nuclear engineers that do enter the work force to enable them to build upon this experience, rather than having to re-create it. On the positive side, enrollment patterns in the majority of nuclear engineering programs still in existence within the United States are now generally on the rise, at least at the undergraduate level. Some programs have

  18. The World Nuclear Industry Status Report 2004

    International Nuclear Information System (INIS)

    Schneider, Mycle; Froggatt, Antony

    2004-12-01

    Fifty years ago, in September 1954, the head of the US Atomic Energy Commission stated that nuclear energy would become 'too cheap to meter': The cost to produce energy by nuclear power plants would be so low that the investment into electricity meters would not be justified. By coincidence the US prophecy came within three months of the announcement of the world's first nuclear power plant being connected to the grid in.. the then Soviet Union. In June 2004, the international nuclear industry celebrated the anniversary of the grid connection at the site of the world's first power reactor in Obninsk, Russia, under the original slogan '50 Years of Nuclear Power - The Next 50 Years'. This report aims to provide a solid basis for analysis into the prospects for the nuclear power industry. Twelve years ago, the Worldwatch Institute in Washington, WISE-Paris and Greenpeace International published the World Nuclear Industry Status Report 1992. In the current international atmosphere of revival of the nuclear revival debate - it has been a periodically recurring phenomenon for the past twenty years - two of the authors of the 1992 report, now independent consultants, have carried out an updated review of the status of the world nuclear industry. The performance of the nuclear industry over the past year is summed up in this report

  19. Health and safety record of the nuclear industry

    International Nuclear Information System (INIS)

    Carter, M.W.; Carruthers, E.; Button, J.C.E.

    1975-09-01

    This paper examines the claim of the nuclear industry to have an excellent safety record, in terms of health and accident records of workers in the industry. It does not consider accidents which have not resulted in harm to the workers' health. The nuclear industry is considered to include all work with ionising radiations and radioactive materials, in education, research, medicine and industry. Since 'safety' is not an absolute concept, comparisons are made with the published records of other industries, and a study is made of the performance of the nuclear industry in relation to its own safety criteria. Data are presented on the radiation exposure of nuclear workers in Europe, America, India and Australia, in relation to the internationally recommended limits, and there is some discussion of the risks involved in these limits. The death rate in parts of the nuclear industry in America, the United Kingdom, and Australia is presented and compared with the death rate for other industries in those countries, and a listing is made of deaths caused by radiation in the period 1945 to 1968. Injury rates for the US and Australian nuclear industries are also compared with the injury rates for other industries in these countries. Consideration is given to the safety record of individual components of the nuclear industry (using the wide definition of this industry given above), special attention being given to health records of uranium miners, plutonium workers and radiologists. Although there are difficulties in obtaining sufficiently detailed information of this kind it is considered that the data presented, relative to any reasonable standard, demonstrate that the nuclear industry has a safety record to be proud of. (author)

  20. Radioactive wastes of Nuclear Industry

    International Nuclear Information System (INIS)

    1995-01-01

    This conference studies the radioactive waste of nuclear industry. Nine articles and presentations are exposed here; the action of the direction of nuclear installations safety, the improvement of industrial proceedings to reduce the waste volume, the packaging of radioactive waste, the safety of radioactive waste disposal and environmental impact studies, a presentation of waste coming from nuclear power plants, the new waste management policy, the international panorama of radioactive waste management, the international transport of radioactive waste, finally an economic analysis of the treatment and ultimate storage of radioactive waste. (N.C.)

  1. The future of nuclear power and fourth-generation reactors

    International Nuclear Information System (INIS)

    Carre, F.; Renault, C.

    2006-01-01

    Faced with the exhaustion of fossil fuel resources, the output of existing nuclear power must quadruple between now and 2050, and the Commissariat a l'Energie atomique (CEA) and its industrial partners are cooperating in a programme of R and D on future nuclear power. France strategy puts rapid neutron reactors (RNR) at the forefront, in view of their possible introduction by 2040. These reactors allow a more efficient use of uranium resources and minimise the production of long-life nuclear waste. Two technologies which use respectively, sodium and gas as their coolant are being studied. For the sodium RNR, which benefits from significant existing experience, the key is to first improve its economic performance. For the gas RNR, which draws on the principles and the generic assets of the RNR, for those using helium as the coolant, and those with applications at high temperature, it is important firstly to demonstrate the key technologies such as the fuel. The decision of President Chirac to launch the study of a prototype, fourth-generation reactor for 2020 is stimulating the research effort into France future nuclear power. (author)

  2. Industry based performance indicators for nuclear power plants

    International Nuclear Information System (INIS)

    Connelly, E.M.; Van Hemel, S.B.; Haas, P.M.

    1990-07-01

    This report presents the results of the first phase of a two-phase study, performed with the goal of developing indirect (leading) indicators of nuclear power plant safety, using other industries as a model. It was hypothesized that other industries with similar public safety concerns could serve as analogs to the nuclear power industry. Many process industries have many more years of operating experience, and many more plants than the nuclear power industry, and thus should have accumulated much useful safety data. In Phase 1, the investigators screened a variety of potential industry analogs and chose the chemical/petrochemical manufacturing industry as the primary analog for further study. Information was gathered on safety programs and indicators in the chemical industry, as well as in the nuclear power industry. Frameworks were selected for the development of indicators which could be transferred from the chemical to the nuclear power environment, and candidate sets of direct and indirect safety indicators were developed. Estimates were made of the availability and quality of data in the chemical industry, and plans were developed for further investigating and testing these candidate indicators against safety data in both the chemical and nuclear power industries in Phase 2. 38 refs., 4 figs., 7 tabs

  3. Nuclear industry and production of energy: arguments for a discussion

    International Nuclear Information System (INIS)

    Sorin, F.

    2004-01-01

    This article reviews the advantages of nuclear energy (nuclear energy increases the energy autonomy of France, provides cheap energy, does not generate greenhouse effect gases and concerns an exporting high-tech industry that generates qualified jobs and added-value to French industry) and highlights its ability to fill the gap before renewable energies are efficient and reliable to produce large amounts of electric power and to face the present and future challenges like the progressive running dry of fossil energy sources or the compliance with the Kyoto agreement. The 2 controversial issues: the consequences of a terrorist attack on a nuclear facility and what to do with radioactive wastes are for the first one exaggerated in public opinion (some figures and facts concerning the resistance of the concrete containment that encloses a PWR type reactor are given in this article) and for the second the disposal in deep underground storage sites appears to be a solution. (A.C.)

  4. The future of nuclear power

    International Nuclear Information System (INIS)

    Burtak, F.

    1993-01-01

    Nuclear power in Germany at present is confronting two challenges: On the one hand, technical innovations are required in order to meet the expectations of nuclear proponents while, on the other hand, a public stand must be taken vis-a-vis the demand to opt out of nuclear power. This means that nuclear engineers not only must perform their technical functions, but increasingly also engage themselves socially. Neglecting just one of these two challenges is likely to impair severely the future of nuclear power in Germany. In the absence of a swing in public opinion it will not be possible to build a new nuclear plant, and nuclear power will be doomed to extinction, at least in a number of countries, within a matter of decades. In the absence of technical innovation, today's LWR technology will cause the fissile uranium available naturally to be consumed, thus killing nuclear power for lack of future fissile material. In responding to the two challenges, nuclear technology must safeguard its future by not retreating into an ivory tower of pure technology; on the other hand, technical innovation is a prerequisite for its continued existence. (orig.) [de

  5. Future nuclear regulatory challenges. A report by the NEA Committee on Nuclear Regulatory Activities

    International Nuclear Information System (INIS)

    1998-01-01

    Future challenges are considered that may arise from technical, socio-economic and political issues; organizational, management and human aspects; and international issues. The perceived challenges have been grouped into four categories, each covered by a chapter. Technical issues are addressed that many present regulatory challenges in the future: ageing nuclear power plants. External changes to industry are considered next that have an effect on regulators, privatization, cost reduction consequences, commercialization etc. It is followed by the impacts of internal changes: organizational, managerial, human-resources, licensing, staff training etc. Finally, international issues are discussed with potential regulatory impact. (R.P.)

  6. Summary of experimental studies on biological effects of radionuclides in Chinese Nuclear Industry

    International Nuclear Information System (INIS)

    Chen Rusong

    1994-11-01

    The experimental studies on the biological effects with internal contamination of radionuclides (Such as Uranium, Plutonium, Tritium, Iodine, Radon and its products, etc.) in the Chinese nuclear industry were summarized systematically. In these studies some institutes in the nuclear industry system and other relevant units in China were involved. The review was carried out in both stochastic and deterministic effects, and focused on the dose-effect relationship. The research work showed that great progress for the experimental studies on biological effects with internal irradiation has been made in China. There is a definite characteristic in a certain extent. It makes contribution to develop the production of nuclear industry and the construction of national economy. Several constructive suggestions of prospects for the work in future were proposed and it will make an attention in the field of radiation protection at home and abroad

  7. Market competition in the nuclear industry

    International Nuclear Information System (INIS)

    Taylor, M.

    2008-01-01

    The nuclear industry provides a wide variety of specialized equipment and services to support the construction and operation of nuclear power plants (NPPs). This includes the supply of NPPs themselves, the range of materials and services required in the nuclear fuel cycle, and the services and equipment needed for maintenance and upgrading. The markets to provide these have changed substantially as they have evolved from the government-led early stages of the nuclear industry to predominantly competitive, commercial markets today. (author)

  8. Overview of the Russian nuclear industry

    International Nuclear Information System (INIS)

    2008-02-01

    In 2004, President Poutine decided to replace the atomic energy ministry (Minatom) by the federal atomic energy agency (Rosatom). Several projects were launched during the next two years which aimed at bringing back Russia to the fore front of the world leaders of nuclear energy use and nuclear technology export. In 2007, Rosatom agency was changed to a public holding company and a new company, named Atomenergoprom, was created which gathers all civil nuclear companies (AtomEnergoMash for the exploitation of power plants, Technabsexport (Tenex) specialized in enrichment or Atomstryexport in charge of export activities). Thus, Rosatom is at the head of all civilian and military nuclear companies, of all research centers, and of all nuclear and radiological safety facilities. In 2006, Russian nuclear power plants supplied 15.8% of the whole power consumption. Russia wishes to develop its nuclear program with the construction of new reactors in order to reach a nuclear electricity share of 25% from now to 2020. This paper presents first the 2007 institutional reform of the Russian atomic sector, and the three sectorial federal programmes: 1 - development of the nuclear energy industrial complex for the 2007-2010 era and up to 2015 (future power plants, nuclear fuel centers and reactor prototypes), 2 - nuclear safety and radioprotection for the 2008-2015 era (waste management, remedial actions, radiation protection), 3 - military program (confidential). Then, the paper presents: the international actions (export of Russian technology, cooperation agreements, non-proliferation), the situation of the existing nuclear park (reactors in operation, stopped, under construction and in project), the fuel cycle activities (production of natural uranium, enrichment, fuel fabrication, spent fuel storage, reprocessing, waste management), the nuclear R and D in Russia, and the nuclear safety authority. (J.S.)

  9. The future of nuclear energy (group 17)

    International Nuclear Information System (INIS)

    Moncomble, J.E.

    2002-01-01

    This article is the work of a group of students from the ''Ecole Nationale d'Administration'', they had to study the perspective of nuclear energy in France. Nuclear energy is an important element to assure the stability of the energy supply of the country. Uranium purchases appear to be safe for being diversified and the price of the nuclear fuel contributes to only 20% of the price of the kWh compared to 40% for natural gas. Today the competitiveness of nuclear energy is assured but technological progress concerning gas turbines might challenge it in the years to come. Sustainable development implies not only abundant energy for all but also a preserved environment for the generations to come. The development of nuclear energy is hampered by the lack of satisfactory answers to the problem of fuel back-end cycle and more generally to the issue of radioactive wastes. On the other hand nuclear energy presents serious assets concerning the preservation of environment: nuclear energy as a whole from the uranium ore mining to the production of electricity emits very few atmospheric pollutants and greenhouse effect gases, and requires little room for its installations. The composition of the future energy mix will depend greatly on opinions and assumptions made about the reserves of fossil fuels, technological perspectives and the perception by the public of industrial risks (environmental damage, nuclear accidents...). (A.C.)

  10. Preservation of nuclear talented experts in Japan by co-operation of industries, research institutes and universities

    International Nuclear Information System (INIS)

    Mori, H.

    2004-01-01

    Full text: Nuclear power accounts for about 35% electric power generation in Japan, playing an important role of energy supply. In addition, a commercial scale reprocessing plant is under construction. A real nuclear fuel cycle is imminently close at hand in Japan. COP3 in Kyoto in 1997 called for every country's fight against global warming. Nuclear power in Japan is expected to take another important role from this viewpoint, too. In order to play these expected roles, it is absolutely needed to preserve nuclear talented experts, by maintaining, succeeding and newly developing nuclear technologies. The Atomic Energy Commission of Japan also points out in its report on 'Long-Term Program for Research, Development and Utilization of Nuclear Energy' that research-and development activities are very important to motivate young researchers and engineers who might choose to take nuclear careers. However, young generation capable students seem to avoid majoring nuclear engineering in view of nuclear industry uncertainties in future caused by stagnated Japanese economy since 1990, liberalization of electricity markets, future electricity demand modest forecasts, matured light water reactor technologies, and repeated nuclear accidents inside and outside the country, etc. Aging research facilities at universities are another de-motivating element of causing the reduction of qualifiable students. Consequently, preservation of knowledge and expertise is becoming a big concern for future. According to the survey conducted by the Japan Atomic Industrial Forum (JAIF) over two years since 2002, participated by the members from nuclear industries, universities, research organizations, electricity industries, nuclear plant suppliers and construction contractors, as well as the questionnaire sent to students, there are various issues for preservation of nuclear talented experts in Japan. Although the number of graduates on nuclear engineering is actually about 350 every year, and

  11. Nuclear instrumentation for the industrial measuring systems

    International Nuclear Information System (INIS)

    Normand, S.

    2010-01-01

    This work deals with nuclear instrumentation and its application to industry, power plant fuel reprocessing plant and finally with homeland security. The first part concerns the reactor instrumentation, in-core and ex-core measurement system. Ionization Uranium fission chamber will be introduced with their acquisition system especially Campbell mode system. Some progress have been done on regarding sensors failure foresee. The second part of this work deals with reprocessing plant and associated instrumentation for nuclear waste management. Proportional counters techniques will be discussed, especially Helium-3 counter, and new development on electronic concept for reprocessing nuclear waste plant (one electronic for multipurpose acquisition system). For nuclear safety and security for human and homeland will be introduce. First we will explain a new particular approach on operational dosimetric measurement and secondly, we will show new kind of organic scintillator material and associated electronics. Signal treatment with real time treatment is embedded, in order to make neutron gamma discrimination possible even in solid organic scintillator. Finally, the conclusion will point out future, with most trends in research and development on nuclear instrumentation for next years. (author) [fr

  12. The political economy of the nuclear industry

    International Nuclear Information System (INIS)

    Falk, J.

    1981-01-01

    The changing international context, in particular declining estimates of nuclear capacity and a depression in the nuclear reactor market will influence prospects for a nuclear industry in Australia. Effects of the opposition by trade unions and community groups to uranium mining are discussed. The relationship between political decisions and the economics of the nuclear power industry is stressed

  13. Topics on Education Activities in Japanese Nuclear Industries

    International Nuclear Information System (INIS)

    Kuroiwa, Haruko

    2008-01-01

    The progression of an aging society with fewer children or a foreseeable decrease in population has caused the nuclear power plants under planning canceled or delayed. As a result, the number of students graduating with a nuclear degree began to decrease, while the development of the next generation light water reactor or of the practical use of the fast breeder reactor requires many skilled engineers. Atomic Energy Commission of Japan realized this potential impact of human resources. The Commission submitted the Framework for Nuclear Energy Policy including this issue to the government. The report says that without future talent development, Japan will lose its competitiveness against other industrialized countries, and that without replenishment after a large number of baby boomers retire, the shortage of specialists in the radiation field will occur. In conjunction with the Framework for Nuclear Energy Policy, the Ministry of Education, Culture, Sports, Science and Technology and the Ministry of Economy, Trade and Industry carried out the Nuclear Power Human Resources Development Program in 2007 fiscal year. The program focused on i) Support of educational activities, such as basic nuclear education and research, internship, and preparation of core curriculums and texts for nuclear power, ii) Implementation of research in the basic and infrastructure technology fields supporting the nuclear power (ex. structural strength, material strength, welding, erosion/corrosion, heat transfer, radiation safety). This program will continue till the end of 2009 fiscal year. Besides in order to promote nuclear power acceptance and to secure diversity, effective measures should be taken to support young, women, and foreign researchers and to promote their utilization. Mitsubishi accepts overseas students and researchers as an internship every year, and accelerates the safety architecture in the world. (author)

  14. Topics on Education Activities in Japanese Nuclear Industries

    Energy Technology Data Exchange (ETDEWEB)

    Kuroiwa, Haruko [Mitsubishi Heavy Industries, LTD - MHI, 2-16-5 Kona Minato-K 108-8215 Tokyo (Japan)

    2008-07-01

    The progression of an aging society with fewer children or a foreseeable decrease in population has caused the nuclear power plants under planning canceled or delayed. As a result, the number of students graduating with a nuclear degree began to decrease, while the development of the next generation light water reactor or of the practical use of the fast breeder reactor requires many skilled engineers. Atomic Energy Commission of Japan realized this potential impact of human resources. The Commission submitted the Framework for Nuclear Energy Policy including this issue to the government. The report says that without future talent development, Japan will lose its competitiveness against other industrialized countries, and that without replenishment after a large number of baby boomers retire, the shortage of specialists in the radiation field will occur. In conjunction with the Framework for Nuclear Energy Policy, the Ministry of Education, Culture, Sports, Science and Technology and the Ministry of Economy, Trade and Industry carried out the Nuclear Power Human Resources Development Program in 2007 fiscal year. The program focused on i) Support of educational activities, such as basic nuclear education and research, internship, and preparation of core curriculums and texts for nuclear power, ii) Implementation of research in the basic and infrastructure technology fields supporting the nuclear power (ex. structural strength, material strength, welding, erosion/corrosion, heat transfer, radiation safety). This program will continue till the end of 2009 fiscal year. Besides in order to promote nuclear power acceptance and to secure diversity, effective measures should be taken to support young, women, and foreign researchers and to promote their utilization. Mitsubishi accepts overseas students and researchers as an internship every year, and accelerates the safety architecture in the world. (author)

  15. Present status and future trends of industrial radioisotopes application in Sudan

    International Nuclear Information System (INIS)

    Salih, A.S.

    2008-06-01

    Radioisotopes continue to play an important role in better management of natural resources, industrial growth and environmental preservation. The success of radioisotope applications is due primarily to the ability, conferred by the unique properties of radioactive materials, to collect data, where conventional methods fail or become uneconomical. These are prompt, on-line, in-situ and do not disturb the main industrial process in any way. In Sudan, the application of these nuclear techniques has considerable economic and environmental impact. This paper casts light on the present application of radioisotopes and future trends in the country.(Author)

  16. The use of nuclear heat in the steel industry

    International Nuclear Information System (INIS)

    Coche, L.

    1976-01-01

    It is possible, but not easy, to use nuclear energy for steelmaking: low temperature level, and difficulty to get a continuous energy supply, are the main limiting factors. Practically, the nuclear reactor and the steel making units will not be coupled. Among the various possible systems, the most practical one for the near future consists in using nuclear heat to produce hydrogen (using natural gas or oil products as a feedstock) and electric power. Hydrogen is used to reduce iron ore in units such as Midrex, Hyl, Armco or Purofer. Steel is produced from this reduced material in electric arc furnaces. Industrial development will be slow, since economical conditions are presently pretty far from making such a process economically competitive [fr

  17. Nuclear Fuel Cycle Technologies: Current Challenges and Future Plans - 12558

    Energy Technology Data Exchange (ETDEWEB)

    Griffith, Andrew [U.S. Department of Energy, Washington, DC (United States)

    2012-07-01

    The mission of the Office of Nuclear Energy's Fuel Cycle Technologies office (FCT program) is to provide options for possible future changes in national nuclear energy programs. While the recent draft report of the Blue Ribbon Commission on America's Nuclear Future stressed the need for organization changes, interim waste storage and the establishment of a permanent repository for nuclear waste management, it also recognized the potential value of alternate fuel cycles and recommended continued research and development in that area. With constrained budgets and great expectations, the current challenges are significant. The FCT program now performs R and D covering the entire fuel cycle. This broad R and D scope is a result of the assignment of new research and development (R and D) responsibilities to the Office of Nuclear Energy (NE), as well as reorganization within NE. This scope includes uranium extraction from seawater and uranium enrichment R and D, used nuclear fuel recycling technology, advanced fuel development, and a fresh look at a range of disposal geologies. Additionally, the FCT program performs the necessary systems analysis and screening of fuel cycle alternatives that will identify the most promising approaches and areas of technology gaps. Finally, the FCT program is responsible for a focused effort to consider features of fuel cycle technology in a way that promotes nonproliferation and security, such as Safeguards and Security by Design, and advanced monitoring and predictive modeling capabilities. This paper and presentation will provide an overview of the FCT program R and D scope and discuss plans to analyze fuel cycle options and support identified R and D priorities into the future. The FCT program is making progress in implanting a science based, engineering driven research and development program that is evaluating options for a sustainable fuel cycle in the U.S. Responding to the BRC recommendations, any resulting legislative

  18. Nuclear systems of the future - generation 4. Proposals of strategic orientations for the nuclear systems of the future

    International Nuclear Information System (INIS)

    2007-01-01

    Several points, specific to France, must be taken into consideration for the long term strategic choice of future nuclear systems, in particular: taking the best profit of the progress potentialities of water reactors, optimizing the opportunities offered by the renewal of power plants in operation, integrating the consequences and the implementation of a strategy of optimized management of radioactive wastes, and looking for improvements that would make nuclear energy an active contributor to sustainable development. The prospective researches carried out by the CEA and its industrial partners have led to propose a R and D strategy with 3 complementary goals: search for innovations for water reactors, development of fast neutron reactors with closed fuel cycle (sodium fast reactor (SFR), gas fast reactor (GFR)), and development of key-technologies for nuclear hydrogen production (very high temperature reactor (VHTR)). The R and D effort concerns also the subcritical systems devoted to transmutation, the new cycle processes for a global management of actinides, and some other nuclear systems like the molten salt reactors (MSR) and the supercritical water reactors (SCWR). This paper presents the R and D strategy for each technology with its priorities, steps, financial means and collaborations. (J.S.)

  19. Education for the nuclear power industry: Swedish perspective

    International Nuclear Information System (INIS)

    Blomgren, J.

    2005-01-01

    In the Swedish nuclear power industry staff, very few newly employed have a deep education in reactor technology. To remedy this, a joint education company, Nuclear Training and Safety Center (KSU), has been formed. To ensure that nuclear competence will be available also in a long-term perspective, the Swedish nuclear power industry and the Swedish Nuclear Power Inspectorate (SKI) have formed a joint center for support of universities, the Swedish Nuclear Technology Center (SKC). The activities of these organisations, their links to universities, and their impact on the competence development for the nuclear power industry will be outlined. (author)

  20. Blue Ribbon Commission, Yucca Mountain Closure, Court Actions - Future of Decommissioned Reactors, Operating Reactors and Nuclear Power - 13249

    International Nuclear Information System (INIS)

    Devgun, Jas S.

    2013-01-01

    Issues related to back-end of the nuclear fuel cycle continue to be difficult for the commercial nuclear power industry and for the decision makers at the national and international level. In the US, the 1982 NWPA required DOE to develop geological repositories for SNF and HLW but in spite of extensive site characterization efforts and over ten billion dollars spent, a repository opening is nowhere in sight. There has been constant litigation against the DOE by the nuclear utilities for breach of the 'standard contract' they signed with the DOE under the NWPA. The SNF inventory continues to rise both in the US and globally and the nuclear industry has turned to dry storage facilities at reactor locations. In US, the Blue Ribbon Commission on America's Nuclear Future issued its report in January 2012 and among other items, it recommends a new, consent-based approach to siting of facilities, prompt efforts to develop one or more geologic disposal facilities, and prompt efforts to develop one or more consolidated storage facilities. In addition, the March 2011 Fukushima Daiichi accident had a severe impact on the future growth of nuclear power. The nuclear industry is focusing on mitigation strategies for beyond design basis events and in the US, the industry is in the process of implementing the recommendations from NRC's Near Term Task Force. (authors)

  1. Future of nuclear power in the Northeast

    International Nuclear Information System (INIS)

    Sailor, V.L.; Shore, F.J.

    1976-01-01

    As of July 1975, there were 15 operable nuclear power plants in the Northeast, representing approximately 11 percent of the regional electric generating capability. Construction plans for the next two decades show a strong preference for nuclear units, there being 18 new units under construction and 33 additional units announced. Three projections (scenarios) covering the period from 1976 to 2000 are presented. The Base Case Nuclear Scenario assumes that the construction schedules as of August 31, 1975 are implemented. A Nuclear Moratorium Scenario assumes that no new plants are undertaken after January 1, 1977. Finally, a Maximum Nuclear Growth Scenario postulates a concerted effort to add additional nuclear capacity beginning in 1982, but constrained by the ability of industry to expand the capabilities needed to supply the components and fuel. Appreciable differences in the three scenarios do not appear until about 1985, a consequence of the long lead time in making plans and completing construction. The cumulative incremental costs of the Nuclear Moratorium Scenario postulated in this study exceed $160 billion by the year 2000. Despite the present favorable economics and performance of the nuclear units, and despite the strong preference of the planners for nuclear capacity to meet future demands, there are many factors which cast doubt on whether these plans will be executed. Cost escalation, combined with difficulties in raising capital funds, have forced many units to be deferred or canceled

  2. JAIF's 23rd nuclear industry survey: strengthening industrial foundations under low economic growth

    International Nuclear Information System (INIS)

    Anon.

    1983-01-01

    Each year since the beginning of nuclear development in Japan, Japan Atomic Industrial Forum has conducted the survey of the nuclear-related aspects in mining and manufacturing industries, electric utilities, trading firms, etc., regarding their expenditures, sales and personnel. The results of the 23rd survey for fiscal 1981 (April, 1981, to March, 1982,) are described. The salient points in the year, as compared with fiscal 1980, are as follows: (trend in expenditures) nuclear-related expenditures exceeded yen2 trillion, up 12 %; the operation and maintenance costs of electric utilities varied, but overall, up 25 %; the nuclear-related expenditures of mining and manufacturing industries were up 34 %; (trend in sales) the new record in mining and manufacturing industries - the sales topped yen1 trillion; the sales of reactor equipments rose by 59 %; the sales by mining and manufacturing industries to electric utilities up 42 %; the nuclear-related exports of mining and manufacturing industries grew by 13 %; the revenues and sales exceeded the expenditures in mining and manufacturing industries. (Mori, K.)

  3. Nuclear weapons industry

    International Nuclear Information System (INIS)

    Bertsch, K.A.; Shaw, L.S.

    1984-01-01

    This unique study was written specifically as a reference source for institutional investors concerned about the threat posed to their stock portfolios by the debate over nuclear arms production. The authors focus their analysis on the 26 leading companies in the field. The perspective is neutral and refreshing. Background information on strategic policy, arms control and disarmament, and the influence of the industry on defense policy and the economy is presented rationally. The study also discusses the economic significance of both the conversion from military to civilian production and nuclear freeze initiatives. An appendix contains a fact-filled guide to nuclear weapon systems

  4. Survey of past base isolation applications in nuclear power plants and challenges to industry/regulatory acceptance

    International Nuclear Information System (INIS)

    Malushte, S.R.; Whittaker, A.S.

    2005-01-01

    Seismic base isolation provides many benefits that can facilitate the standardization of future nuclear power plant structures and equipment while reducing the initial/life-cycle cost and construction schedule. This paper presents a survey of past seismic base isolation applications and studies related to nuclear applications and provides a discussion of the challenges that need to be overcome to gain industry and regulatory acceptance for deployment in future US nuclear power plants. Issues related to design, codes/standards/regulations, procurement, and construction, have been identified. (authors)

  5. Localization and indigenization of China nuclear power industry

    International Nuclear Information System (INIS)

    Zhang Xingfa

    2009-01-01

    It points out that China needs to develop nuclear power to solve the shortage of energy source. Localization and independence is the key for the development of nuclear power industry. Localized and independent nuclear power possesses economical competitiveness. China has the condition and capability to realize localization and independence of nuclear power industry. Technology introduction, adaptation and assimilation can enhance the R and D capability of China's nuclear power industry, and speed up the process of localization and independence. (authors)

  6. Latest technological achievements and future prospects in the RCR industry

    International Nuclear Information System (INIS)

    Corny, F.

    1998-01-01

    As the international utilities community enters an era marked by new patterns such as deregulation, industrial nuclear companies must offer a broad and attractive series of flexible services in order to match with the utilities needs. COGEMA Group has therefore developed a global industrial answer-thanks to various technological tools-covering reprocessing of spent nuclear fuel, treatment of waste, and recycling of reusable materials as well as a transportation system. According to this framework, spent fuel is first shipped from the nuclear power plant to the. La Hague reprocessing site. The La Hague site-1997 reprocessed spent fuel quantities exceed 11,100 tU-offers a technically mastered and economically proven solution for spent fuel reprocessing. Besides the acquired industrial maturity, specially in the waste treatment and conditioning area-i.e., vitrification of high level waste reached more than 5,500 canisters at beginning 1998-future improvements are being prepared steadily. For instance, the construction of a new workshop, known as the ACC, for medium activity materials (hulls, end-pieces, and technological waste) compaction will be a milestone in the waste management concept. Industrial recycling of reusable materials (uranium and plutonium) is also implemented at full-throttle. For instance, the MELOX manufacturing plant-whose production reached 102 tHM in 1997 thanks to evolutive processes such as AMIMAS-allows to feed with efficiency the European MOX loading program (28 reactors: 15 in France, 8 in Germany, 3 in Switzerland and 2 in Belgium). Last, a dedicated transport organization-through highly specialized subsidiaries such as TRANSNUCLEAIRE-gives this industrial and technical scheme its consistency as shown by the successful return of vitrified residue to Japan. The development of new transport casks for instance MOX transport casks called the MX family-and the implementation of new techniques, like satellite tracking of trucks..., will give

  7. The future of nuclear power: Looking ahead. Address at the Japan Atomic Industrial Forum, Sendai, 12 April 1999

    International Nuclear Information System (INIS)

    ElBaradei, M.

    1999-01-01

    In his address at the Japan Atomic Industrial Forum (Sendai, 12 April 1999), the Director General of the IAEA described the role of the IAEA for nuclear power development, emphasizing the following aspects: nuclear power and the global energy mix, nuclear safety and the importance of public confidence, economic competitiveness and the role of research and development, and the importance of nuclear verification and prevention of illicit trafficking

  8. Japanese government makes the first step of the nuclear energy policy. The 'Nuclear Power Nation Plan' that shows the future of the nuclear energy policy of Japan

    International Nuclear Information System (INIS)

    Yanase, Tadao

    2006-01-01

    The Nuclear Energy Subcommittee of the METI Advisory Committee deliberated concrete actions for achieving the basic goals of the framework for nuclear energy policy, namely 1) continuing to meet at least 30 to 40% of electricity supply even after 2030 by nuclear power generation, 2) future promoting the nuclear fuel cycle, and 3) aiming at commercializing practical FBR cycle. In August 2006, the subcommittee recommendations were drawn up as a 'Nuclear Energy National Plan'. This report includes 1) building new nuclear power plants in liberalized electricity market, 2) appropriate use of existing nuclear power plants with assuring safety as a key prerequisite, 3) promoting nuclear fuel cycle and strategically reinforcing of nuclear industries, 4) early commercialization of FBR cycle, 5) assuming ample technical and human resources to support the next generation, 6) supporting for international development of Japan's nuclear industry, 7) positive involvement in creating an international framework to uphold both non-proliferation and the expansion of nuclear power generation, 8) building trust between government and local communities through detailed communication and 9) reinforcement of measures for radioactive waste disposal. (S.Y.)

  9. Nuclear industry project audit and countermeasures

    International Nuclear Information System (INIS)

    Li Yongxin; Zhang Jian

    2012-01-01

    With China's increasing use of nuclear energy, nuclear power related construction projects related to the deepening of the audit, some of the nuclear industry in construction field of the dominant issues have been more effective containment, such as inflated workload, high-set fixed standards, to improve billing unit price, which overestimate the risk calculation tools and behavior completed audit of the accounts have been able to escape his stuff. However, some nuclear industry construction field with a hidden problem because of its hidden nature, not easily found, and some even have intensified the trend. Construction funds to the country such problems caused by the loss of waste is enormous, to the breeding of corruption provided the soil is fertile, if not promptly and effectively to stop the breeding will spread. This paper on the current construction of the nuclear industry in several major areas of the hidden problems are discussed, and the angle from the audit of appropriate countermeasures. (authors)

  10. Current status and future prospects of nuclear industry in Europe and in France

    International Nuclear Information System (INIS)

    Caron, Olivier

    2006-01-01

    Because we are now in Europe and the world at a defining moment in the history of nuclear energy, facing great opportunities, when everybody is striving to access a safe, reliable and sustainable energy supply, in order to meet the rising global demand. We are currently living through a real nuclear renaissance, driven by the increase of the price of oil and gas, the effect on the environment of CO 2 emissions, and the need of people to have access to energy in order to attain a better standard of living. Nuclear energy is thus considered as one intangible component of any energy mix seeking sustainable development. It is thus a very appropriate time to take stock and evaluate the current situation in France and Europe, and look at the challenges nuclear energy will have to face in the near future. After addressing these issues, if you allow me, I would like in my conclusion to indulge in a brief overview of the world situation and global challenges

  11. Learning curve estimation techniques for the nuclear industry

    International Nuclear Information System (INIS)

    Vaurio, J.K.

    1983-01-01

    Statistical techniques are developed to estimate the progress made by the nuclear industry in learning to prevent accidents. Learning curves are derived for accident occurrence rates based on actuarial data, predictions are made for the future, and compact analytical equations are obtained for the statistical accuracies of the estimates. Both maximum likelihood estimation and the method of moments are applied to obtain parameters for the learning models, and results are compared to each other and to earlier graphical and analytical results. An effective statistical test is also derived to assess the significance of trends. The models used associate learning directly to accidents, to the number of plants and to the cumulative number of operating years. Using as a data base nine core damage accidents in electricity-producing plants, it is estimated that the probability of a plant to have a serious flaw has decreased from 0.1 to 0.01 during the developmental phase of the nuclear industry. At the same time the frequency of accidents has decreased from 0.04 per reactor year to 0.0004 per reactor year

  12. The development of an integrated nuclear fuel-cycle industry to meet the needs of the Italian nuclear power programme

    International Nuclear Information System (INIS)

    Angelini, A.M.; Badolato, G.; Clementel, E.

    1977-01-01

    The paper summarizes the Italian nuclear power station programme, recently approved by the Government, and illustrates the main reasons for the programme, which are in line with those presented at the Geneva Conference in 1971, and which lead to the consideration that nuclear energy is the main source for meeting practically all new electric power requirements in Italy. The implementation of this programme involves considerable nuclear fuel-cycle services, ranging from uranium supply to waste disposal. The industrial strategy to meet these needs is discussed. Technical and economic factors affecting such strategy, both for the fuel cycle as a whole and for its individual phases, are considered. Attention is focused on problems typical of the Italian situation and on various ways of solving them. A prominent feature of the Italian situation is the lack of sizeable domestic uranium resources, which makes it even more important to try, by local industrial efforts, to cover the phases of the cycle subsequent to uranium supply, so as to increase as much as possible the fraction of added value produced inside the country. The present status of the Italian nuclear fuel-cycle industry is reviewed in detail, and its capability of supporting the nuclear programme is analysed. Future development plans are discussed, taking into account the possibility of European co-operation. While the focus is on short- and medium-term programmes, the long-term nuclear programmes are discussed, such as those based on fast breeders, and stress is laid on the need to build up as quickly as possible a strong nuclear fuel-cycle industry. (author)

  13. Nuclear industry and radioecological safety

    International Nuclear Information System (INIS)

    Semenov, V. G.

    2006-01-01

    The beginning of XXI century is marked with increasing public concern over impact of man-made activity, including nuclear technologies, on the environment. Currently, the anthropocentric principle is applied in the course of the radioecological safety guaranteeing for the environment, which postulates that human protectability serves as guarantee of the environmental one. However, this principle correctness is called in question recently. The ecocentric principle is proposed as an alternative doctrine, defining balance between human importance and that of any other elements of biota. The system recommended isn't intended for the regulatory standards development yet, because of substantial gaps in scientific knowledge. Nevertheless, renunciation of the anthropocentric principle can result in unwarranted tightened regulatory basis, decreasing of nuclear industry evolution rates, and, consequently, breaching of societal and economical priorities. It is obvious that for the safety guaranteeing, nuclear industry shouldn't stand out against a background of other fields of human activity involved hazard factors. Therefore, new conceptions applying within the regulatory system is to be weighted and exclude formal using of discussion theses. More than semi-centennial experience of the anthropocentric approach applying serves as an evidence of safe protection of ecosystems against radiation exposure that ensures safe ecological development of nuclear power industry and other fields of nuclear technologies application. (author)

  14. Radioactive waste: the poisoned legacy of the nuclear industry; Dechets radioactifs: l'heritage empoisonne du nucleaire

    Energy Technology Data Exchange (ETDEWEB)

    Rousselet, Y. [Campagne Climat/Energie - Greenpeace (France)

    2011-02-15

    The nuclear industry produces a huge amount of radioactive waste from one end to the other of the nuclear cycle: i.e. from mining uranium to uranium enrichment through reactor operating, waste reprocessing and dismantling nuclear power plants. Nuclear power is now being 'sold' to political leaders and citizens as an effective way to deal with climate change and ensure security of energy supplies. Nonetheless, nuclear energy is not a viable solution and is thus a major obstacle to the development of clean energy for the future. In addition to safety and security issues, the nuclear industry is, above all, faced with the huge problem of how to deal with the waste it produces and for which it has no solution. This ought to put a brake on the nuclear industry, but instead, against all expectations, its development continues to gather pace. (author)

  15. Future of nuclear science

    International Nuclear Information System (INIS)

    Anon.

    1977-01-01

    A report is presented by the Ad Hoc Panel on the Future of Nuclear Science on its assessment of the scientific objectives and unexplored questions of nuclear science and recommendations of the manpower, funding, and facilities required to realize its full potential. Nuclear research and its facilities and budgetary, sociological, and application aspects of this research are considered

  16. Nuclear power for sustainable development. Current status and future prospects

    International Nuclear Information System (INIS)

    Adamantiades, A.; Kessides, I.

    2009-01-01

    Interest in nuclear power has been revived as a result of volatile fossil fuel prices, concerns about the security of energy supplies, and global climate change. This paper describes the current status and future plans for expansion of nuclear power, the advances in nuclear reactor technology, and their impacts on the associated risks and performance of nuclear power. Advanced nuclear reactors have been designed to be simpler and safer, and to have lower costs than currently operating reactors. By addressing many of the public health and safety risks that plagued the industry since the accidents at Three Mile Island and Chernobyl, these reactors may help break the current deadlock over nuclear power. In that case, nuclear power could make a significant contribution towards reducing greenhouse gas emissions. However, significant issues persist, fueling reservations among the public and many decision makers. Nuclear safety, disposal of radioactive wastes, and proliferation of nuclear explosives need to be addressed in an effective and credible way if the necessary public support is to be obtained. (author)

  17. Future nuclear energy scenarios for Europe

    International Nuclear Information System (INIS)

    Roelofs, F.; Van Heek, A.

    2010-01-01

    Nuclear energy is back on the agenda worldwide. In order to prepare for the next decades and to set priorities in nuclear R and D and investment, market share scenarios are evaluated. This allows to identify the triggers which influence the market penetration of future nuclear reactor technologies. To this purpose, scenarios for a future nuclear reactor park in Europe have been analysed applying an integrated dynamic process modelling technique. Various market share scenarios for nuclear energy are derived including sub-variants with regard to the intra-nuclear options taken, e.g. introduction date of Gen-III (i.e. EPR) and Gen-IV (i.e. SCWR, HTR, FR) reactors, level of reprocessing, and so forth. The assessment was undertaken using the DANESS code which allows to provide a complete picture of mass-flow and economics of the various nuclear energy system scenarios. The analyses show that the future European nuclear park will exist of combinations of Gen-III and Gen-IV reactors. This mix will always consist of a set of reactor types each having its specific strengths. Furthermore, the analyses highlight the triggers influencing the choice between different nuclear energy deployment scenarios. In addition, a dynamic assessment is made with regard to manpower requirements for the construction of a future nuclear fleet in the different scenarios. (authors)

  18. Manpower development in the US nuclear power industry

    International Nuclear Information System (INIS)

    Todreas, N.E.; Foulke, L.R.

    1985-01-01

    This paper reviews the history and current status of the university nuclear education sector and the utility training sector of the United States (US) nuclear power industry. Recently, the number of programs in the university nuclear education sector has declined, and the remaining programs are in need of both strong governmental and industrial assistance if they are to remain a stable source for educating nuclear engineers and health physicists to staff the resurgence of the nuclear power industry. The utility training sector has undergone remarkable development since the TMI-2 accident. Programs to recruit, train, and qualify the variety of personnel needed, as well as the steps to accredit these programs, are being developed on a systematic, industry-wide basis. A number of new technologies for educating and training personnel are emerging which may be used to create or improve learning environments. Manpower development for the US nuclear power industry is a shared responsibility among the universities, the nuclear utilities, and the nuclear suppliers. This shared responsibility can continue to be best discharged by enhancement of the interaction among all parties with respect to evaluating the proper level of cognitive development within the utility training program

  19. Reinforcement course. Future nuclear power systems. A way to achieve more acceptance?

    International Nuclear Information System (INIS)

    Rey, Matthias

    2013-01-01

    The 2012 Reinforcement Course organized by the Swiss Nuclear Forum was devoted to the question in what way nuclear reactors of the third generation and more recent concepts provide more safety, and whether this is a way to achieve more societal acceptance. Besides presentations by speakers from industry and science, also theological, psychological, political and sociological views about nuclear power were expressed. Dr. Urs Weidmann, President of the Committee on Education of the Swiss Nuclear Forum, Head of the Beznau Nuclear Power Plant, Axpo AG, opened the course to approximately 120 participants by introducing the first six presentations, which dealt with societal aspects of nuclear power. The second group of three papers were introduced by Dr. Philipp Haenggi, Head of the Swiss nuclear office. The subject was 'Future Concepts - Design Regulations and Safety Considerations.' The agenda of the second day featured 'Third-generation Reactors in the Light of Fukushima' and 'Sideviews' of subjects and future technologies discussed by society in a similarly controversial way. Dr. Johannis Noeggerath, Head of Nuclear Safety, Leibstadt Nuclear Power Plant, guided the participants through the eight papers. The next reinforcement course will again be held in Olten on November 19 and 20, 2013, and will be devoted to lifetime management of nuclear power plants. (orig.)

  20. Survey of the strategic competence needs regarding nuclear technology at present and in the future

    International Nuclear Information System (INIS)

    Karnik, Peter; Hammar, Lennart

    2001-12-01

    The Swedish Nuclear Power Inspectorate (SKI) has been commissioned by the government to present a strategy for future directions and priorities regarding the nuclear technology research. This should be done before the end of year 2001. A part of this work is to determine the national future need of competence and how the competence needs should be satisfied. ES-konsult has been assigned by SKI to evaluate the competence needs - based on a questionnaire survey - for the industry and SKI, especially critical nuclear competence that is needed to maintain safety. The nuclear competence can be decreasing as a result of the political decision that the nuclear power should be phased out in Sweden. The purpose is to use the results from the questionnaire as a starting point and then investigate the demands on relevant education at universities. The questionnaire has been prepared in cooperation with SKI. Data has been collected about strategic nuclear technical competencies divided into eleven different defined competence areas. The questions concerned the number of employees with education from universities, within each of one of the eleven competence areas defined. The need of competent employees should also be predicted looking 10 years ahead from now. When it comes to employees today, they have been divided into different categories depending on education, age and experience. The staff turnover for the last five years was also asked for. In the questionnaire there were also some general questions regarding this matter. The collected data covers 709 employees on the power plants, SKI, SKB, Westinghouse Atom, Studsvik, DNV Nuclear Technology, SQC and KSU. The data is presented and discussed in the report. The role of specific nuclear technical competence in the strategic competence areas is especially discussed. In some cases the competence areas consists of general technical and scientific knowledge that will be available in the future regardless of the nuclear power

  1. The information of the nuclear industry before and during the nuclear debate

    International Nuclear Information System (INIS)

    Borgstroem, P.

    1978-10-01

    A review of the organization and resources for information and public relations, which the nuclear industry have at its disposal in Sweden as well as in other countries. Furthermore, pre-nuclear organizations in the Northern Countries, which are not financed by the nuclear industry are discussed. (E.R.)

  2. Risk management of knowledge loss in nuclear industry organizations (Russian edition)

    International Nuclear Information System (INIS)

    2012-08-01

    Maintaining nuclear competencies in the nuclear industry and nuclear regulatory authorities will be one of the most critical challenges in the near future. As many nuclear experts around the world are retiring, they are taking with them a substantial amount of knowledge and corporate memory. The loss of such employees who hold knowledge critical to either operations or safety poses a clear internal threat to the safe and reliable operation of nuclear facilities. This publication is intended for senior and middle level managers of nuclear industry operating organizations and provides practical information on knowledge loss risk management. The information provided in this it is based upon the actual experiences of Member State operating organizations and is intended to increase awareness of the need to: develop a strategic approach and action plans to address the potential loss of critical knowledge and skills; provide processes and in conducting risk assessments to determine the potential for loss of critical knowledge caused by the loss of experienced workers; and enable nuclear organizations to utilize this knowledge to improve the skill and competence of new and existing workers In 2004, the IAEA published a report entitled The Nuclear Power Industry's Ageing Workforce: Transfer of Knowledge to the Next Generation (IAEA-TECDOC-1399). That report highlighted some of the knowledge management issues in Member States resulting from the large number of retiring nuclear power plant personnel who had been involved with the commissioning and initial operation of nuclear power plants. This publication complements that report by providing a practical methodology on knowledge loss risk management as one element of an overall strategic approach to workforce management which includes work force planning, recruitment, training, leadership development and knowledge retention

  3. Future of nuclear S&T in Canada

    International Nuclear Information System (INIS)

    Didsbury, R.

    2015-01-01

    'Full text:' Nuclear R&D started more than 70 years ago has led to establishment of successful nuclear industry and placed Canada among the ranks of Tier 1 nuclear nations with a full spectrum of capabilities and resources in nuclear technology. Recently, Canada's nuclear industry leaders endorsed a 25-year vision that sees Canada thriving as a Tier 1 nation; aligned, integrated trusted, and working collaboratively to deliver innovative, life-enhancing solutions for Canada and the world. The leaders have committed to realizing this longer-term vision through several actions including, commitment to support a strong Canadian nuclear science, technology and innovation agenda. Nuclear R&D in Canada will be largely informed and influenced by the international and domestic nuclear landscapes. Intergovernmental Panel on Climate Change (IPCC) recognizes the need for nuclear in stabilizing atmospheric carbon in ever growing demand for energy. In several industrialized and developing nations, new fleets of reactors are being built; with over 200 planned new constructions. International agencies and intergovernmental forums are engaged in several new collaborative initiatives including closing the back end of the fuel cycle, development of next generation safer and more efficient and small-modular reactor systems, improving nuclear safeguards and security measures, development of non-power applications, management of nuclear waste, reducing radiological exposures and responding to emergencies. Domestically, although there is no plan for a new build in the near- or medium-term, Ontario's Long-Term Energy Plan calls for maintaining nuclear contribution constant in the overall energy mix and the successful refurbishments will be a key to maintaining this mix. The Government has also undertaken restructuring of AECL to position the nuclear industry for success. There are potential opportunities for CANDU supply chain in the international market. The prototype

  4. Future of nuclear S&T in Canada

    Energy Technology Data Exchange (ETDEWEB)

    Didsbury, R. [Canadian Nuclear Laboratories, Chalk River, Ontario (Canada)

    2015-07-01

    'Full text:' Nuclear R&D started more than 70 years ago has led to establishment of successful nuclear industry and placed Canada among the ranks of Tier 1 nuclear nations with a full spectrum of capabilities and resources in nuclear technology. Recently, Canada's nuclear industry leaders endorsed a 25-year vision that sees Canada thriving as a Tier 1 nation; aligned, integrated trusted, and working collaboratively to deliver innovative, life-enhancing solutions for Canada and the world. The leaders have committed to realizing this longer-term vision through several actions including, commitment to support a strong Canadian nuclear science, technology and innovation agenda. Nuclear R&D in Canada will be largely informed and influenced by the international and domestic nuclear landscapes. Intergovernmental Panel on Climate Change (IPCC) recognizes the need for nuclear in stabilizing atmospheric carbon in ever growing demand for energy. In several industrialized and developing nations, new fleets of reactors are being built; with over 200 planned new constructions. International agencies and intergovernmental forums are engaged in several new collaborative initiatives including closing the back end of the fuel cycle, development of next generation safer and more efficient and small-modular reactor systems, improving nuclear safeguards and security measures, development of non-power applications, management of nuclear waste, reducing radiological exposures and responding to emergencies. Domestically, although there is no plan for a new build in the near- or medium-term, Ontario's Long-Term Energy Plan calls for maintaining nuclear contribution constant in the overall energy mix and the successful refurbishments will be a key to maintaining this mix. The Government has also undertaken restructuring of AECL to position the nuclear industry for success. There are potential opportunities for CANDU supply chain in the international market. The prototype

  5. A future for nuclear sites beyond their service life. Nuclear site value development

    International Nuclear Information System (INIS)

    2008-01-01

    -up areas. AREVA is currently working on a site value development program on two industrial sites in Annecy and Veurey, near Grenoble. Dating back to 1955 and 1957, the sites were created for the manufacture and precision machining of uranium metal. The number of clean-up and dismantling projects is set to rise steadily in the years ahead and site value development will unquestionably become a new nuclear activity in its own right. AREVA is developing the corresponding competencies and expertise: new professions are springing up (value development project manager, scenario and feedback manager, operational dismantling methods manager, flushing operator, etc.) and a dedicated theoretical and practical training program is being put together. Once a nuclear site has been shut down, the long-term dismantling and value development operations make a considerable contribution to the local economy. Site rehabilitation is an environmental necessity and improves nuclear's image in the eyes of the public. As new nuclear projects get off the ground, developing the value of disused sites will free up space for future projects and make a valuable contribution to the nuclear revival

  6. Problems of nuclear industry in Japan

    International Nuclear Information System (INIS)

    Yoshiyama, Hirokichi

    1976-01-01

    The past twenty years growth of Japanese reactor plant makers is historically reviewed in the first part of this report. The first ten years were devoted for the construction of research reactors and for the design studies of power plants. The next ten years were devoted for the construction of power stations. Total income and expenditures of Japanese makers for these two periods are presented. It is emphasized that expenditures always exceeded income. The second part previews the projected growth of nuclear power generation. Generating capacities of 49,000 MW at 1985 and 90,000 MW at 1990 is assumed. To meet this demand, Japanese makers must have the ability of supplying about 8000 MW per year and the number of personnel (at present, about 9,000) must be increased to 25,000 in next ten years. The third part discusses the roles of plant makers. Establishment of safe and reliable technology, promotion of standardization, improvement of economical bases, and the promotion of associated industries (such as nuclear fuel makers and operator training institutions) are the main subjects. The roles of government are also shortly discussed. The rest of this paper shortly discusses about the participation to the national project (ATR, FBR, and centrifuge enrichment) and about future problems in growing to an exporting industry. (Aoki, K.)

  7. The British Nuclear Industry Forum's public affairs campaign

    International Nuclear Information System (INIS)

    Parker, Keith

    2000-01-01

    the view of promoting a balanced and persuasive case for nuclear energy and the achievements of the nuclear industry. There are indications that the messages are being heard and acknowledged by those whose opinions and decisions could determine the future shape of energy and environmental policy. There is, though, still a long way to go to change the prevailing climate of public and political opinion towards nuclear energy. Despite some modest successes in the first year of the Campaign, the degree of support and active involvement BNIF had hoped for from its member companies has not materialised. Therefore, the ways in which BNIF has sought to orchestrate the delivery of the Campaign will need to be reviewed and revised. (author)

  8. Roadmap for human resources for expanded Indian nuclear industry

    International Nuclear Information System (INIS)

    Singh, R.K.; Srinivasan, G.R.; Goyal, O.P.

    2011-01-01

    This paper deals with detailed requirement of human resources for all phases of nuclear power plant, for the manufacturing sector and the probable roadmap for achieving India's target. The accident in Fukushima has brought out that only nuclear power that avoids being a threat to the health and safety of the population and the environmental will be acceptable to the society and for this to be achieved human resources could be a single major contributor. India has ambitious plan of achieving 20,000MW by 2020 and 63,000MW by 2050. It is felt out of the three resources men, material and money; the critical shortage would be human resources both in quality and quantity. As per IAEA report (Publication of 2008 edition of energy, electricity and nuclear power estimates for the period of 2030), nuclear capacity must grow to at least 1.8 times current capacity by 2030 if global temperature rises are to be kept at 2°C. Objective of recruiting and training human resources for Indian Industry can be as follows: a) For catering domestic market. b) For catering international market later on for nuclear industries outside India. As India will be an important future international player. The above would require a multiplication of human resources by nearly seven times. In addition it has to be wholesome covering all levels and all skills and all disciplines and stages covering the whole nuclear cycle including regulators. Human resources are required for design and engineering, construction, commissioning, operation, manufacturing and for support services. The manpower for these has to be trained to achieve high quality of nuclear standards. Presently Indian Department of Atomic Energy(DAE) runs several training schools giving one year Post Graduate, tailor made courses. This needs to be multiplied by Joint efforts. Training should be on 'SAT (Systematic Approach to Training)' methodology to ensure focussed, specific, needed to culminate in safe, reliable and viable operation of

  9. Roadmap for human resources for expanded Indian nuclear industry

    Energy Technology Data Exchange (ETDEWEB)

    Singh, R.K. [Bhabha Atomic Research Centre, Mumbai (India); Indian Nuclear Society (India); Srinivasan, G.R.; Goyal, O.P. [Bhabha Atomic Research Centre, Mumbai (India)

    2011-07-01

    This paper deals with detailed requirement of human resources for all phases of nuclear power plant, for the manufacturing sector and the probable roadmap for achieving India's target. The accident in Fukushima has brought out that only nuclear power that avoids being a threat to the health and safety of the population and the environmental will be acceptable to the society and for this to be achieved human resources could be a single major contributor. India has ambitious plan of achieving 20,000MW by 2020 and 63,000MW by 2050. It is felt out of the three resources men, material and money; the critical shortage would be human resources both in quality and quantity. As per IAEA report (Publication of 2008 edition of energy, electricity and nuclear power estimates for the period of 2030), nuclear capacity must grow to at least 1.8 times current capacity by 2030 if global temperature rises are to be kept at 2°C. Objective of recruiting and training human resources for Indian Industry can be as follows: a) For catering domestic market. b) For catering international market later on for nuclear industries outside India. As India will be an important future international player. The above would require a multiplication of human resources by nearly seven times. In addition it has to be wholesome covering all levels and all skills and all disciplines and stages covering the whole nuclear cycle including regulators. Human resources are required for design and engineering, construction, commissioning, operation, manufacturing and for support services. The manpower for these has to be trained to achieve high quality of nuclear standards. Presently Indian Department of Atomic Energy(DAE) runs several training schools giving one year Post Graduate, tailor made courses. This needs to be multiplied by Joint efforts. Training should be on 'SAT (Systematic Approach to Training)' methodology to ensure focussed, specific, needed to culminate in safe, reliable and

  10. Hazard and safety in the nuclear industry

    International Nuclear Information System (INIS)

    Tadmor, J.

    1978-01-01

    Although the number of victims in the nuclear industry has been extremely low as compared with the number of victims in other spheres of human activity society has been willing to put up with a high number of accidents resulting in few victims per accident but refuses to accept an extremely rare accident resulting in a high number of victims. The U.S. nuclear industry is spending almost 2000 dollars for each reduction of a man x rem unit and this investment raises the ''man-life value'' in the nuclear industry to 10 million dollars as compared with 10,000 to 20,000 dollars spent in other activities (roentgen, early cancer detection, etc.). To reduce the exaggerated burden placed on the nuclear industry the safety expenditures should be spread over a maximum possible range of human activities. (B.G.)

  11. Connecting past and future knowledge to develop strategies for managing nuclear knowledge

    International Nuclear Information System (INIS)

    Barroso, A.C.O.; Imakuma, K.

    2006-01-01

    Modern organisations try to 'peek' into the future by assessing emerging technologies and new competencies that should shape the future of an enterprise's competitiveness and use the results to establish its strategy today. Governments should have similar concerns to establish medium and long term policies relative to Science, Technology, Innovation, Industrial Development, International Relations etc. Foresight studies are invaluable tools to build a knowledge base to support decision making in these areas. Results of three Brazilian foresight studies were analysed: one covering the whole C and T area and the two others focused on the nuclear area. In this way, the relevance of the nuclear knowledge topics within the framework of the Brazilian C and T landscape could be assessed. Specific results are highlighted to give insights about the actions needed to promote a more effective policy on nuclear technology developments. (author)

  12. The worldwide nuclear industry and its markets

    International Nuclear Information System (INIS)

    Mons, L.

    2000-06-01

    The world nuclear industry has entered a phase of low activity since the beginning of the 90's. The opening of electricity markets to competition, the reserve of part of the public opinion with respect to nuclear energy and the competition of other power production sources explain the lack of dynamism of nuclear markets. In this context of uncertainties, the nuclear sector has started a re-structuration in depth with new strategic trends which will be decisive for the perenniality of the nuclear industry. The front-end of the fuel cycle is disturbed by production over-capacities which lead to strong tensions on prices. The veering of the German and Belgian policies has had strong impacts on the spent fuels reprocessing activity and the reactor construction activity is in decline in Europe and in the US. On the other hand, services are developing with the extension of the service life of nuclear plants and the waste management and dismantling markets are emerging. The main stakes that the occidental nuclear actors have to face today are: improving the competitiveness of nuclear industry, mastering the management of long-living radioactive wastes, proving the safeness of nuclear power, countering the arrival of Asian competitors. In front of these stakes, the nuclear actors have to take initiatives such as: concentration, vertical integration, technological innovation, communication, diversification etc.. This study examines the overall segments of the world nuclear industry. It comprises also a behaviour and strategy analysis of 13 major actors of this sector. (J.S.)

  13. Financing arrangements for nuclear power projects - Past and present experience, future expectations

    International Nuclear Information System (INIS)

    Troncuta, Mariana; Vatamanu, Maria; Ispas, Gheorghe

    2003-01-01

    Nuclear energy is a clean, safe, and economical industrial electricity source, with many environmental benefits. It does not emit greenhouse gases that contribute to climate change, or combustion by-products and acid gases that cause air, water resource and land pollution. Nuclear energy has also many benefits in the areas of medicine, industry, agriculture, and research. Moreover, the results are revealing. Over the past 12 years, from 1900 to 2002, the global 'energy availability factor' - representing the percentage of time that nuclear power plants worldwide were up and running - increased from 72.9% to 83.4%. At the same time, based on statistics gathered by the World Association of Nuclear Operators - WANO, the number of industrial accidents has gone down, radiation exposure has dropped sharply and the annual volume of radioactive waste produced has been reduced substantially. In other words, the safety, performance and economic competitiveness of the nuclear industry are at an all time high, reflecting a mature and vibrant enterprise. These are several reasons why a prospective host nation and other nations around the world may be attracted by nuclear power generation. Nuclear power can be and has been financed by world capital markets. The crucial question is whether host governments and interested utilities are willing to take the steps required to attract investment with reasonable assurance of success, and whether the nuclear industry is willing and able to become competitive in increasingly deregulated financial and electricity markets. The present paper will have the following structure: the first part will refer to general financing guidelines, and the second part will present a case study. The latter will treat the past experience as provided by the financing scheme of Cernavoda NPP Unit 1, the present experience, i.e. ongoing financing issues for Cernavoda NPP Unit 2 and potential future shared contribution to financing Cernavoda NPP Unit 3, 4 and 5

  14. Europairs project: creating an alliance of nuclear and non-nuclear industries for developing nuclear cogeneration

    International Nuclear Information System (INIS)

    Hittner, Dominique; Bogusch, Edgar; Viala, Celine; Angulo, Carmen; Chauvet, Vincent; Fuetterer, Michael A.; De Groot, Sander; Von Lensa, Werner; Ruer, Jacques; Griffay, Gerard; Baaten, Anton

    2010-01-01

    Developers of High Temperature Reactors (HTR) worldwide acknowledge that the main asset for market breakthrough is its unique ability to address growing needs for industrial cogeneration of heat and power (CHP) owing to its high operating temperature and flexibility, adapted power level, modularity and robust safety features. HTR are thus well suited to most of the non-electric applications of nuclear energy, which represent about 80% of total energy consumption. This opens opportunities for reducing CO 2 emissions and securing energy supply which are complementary to those provided by systems dedicated to electricity generation. A strong alliance between nuclear and process heat user industries is a necessity for developing a nuclear system for the conventional process heat market, much in the same way as the electronuclear development required a close partnership with utilities. Initiating such an alliance is one of the objectives of the EUROPAIRS project just started in the frame of the EURATOM 7. Framework Programme (FP7) under AREVA coordination. Within EUROPAIRS, process heat user industries express their requirements whereas nuclear industry will provide the performance window of HTR. Starting from this shared information, an alliance will be forged by assessing the feasibility and impact of nuclear CHP from technical, industrial, economical, licensing and sustainability perspectives. This assessment work will allow pointing out the main issues and challenges for coupling an HTR with industrial process heat applications. On this basis, a Road-map will be elaborated for achieving an industrially relevant demonstration of such a coupling. This Road-map will not only take into consideration the necessary nuclear developments, but also the required adaptations of industrial application processes and the possible development of heat transport technologies from the nuclear heat source to application processes. Although only a small and short project (21 months

  15. Nuclear power industry, 1981

    International Nuclear Information System (INIS)

    1981-12-01

    The intent of this publication is to provide a single volume of resource material that offers a timely, comprehensive view of the nuclear option. Chapter 1 discusses the development of commercial nuclear power from a historical perspective, reviewing the factors and events that have and will influence its progress. Chapters 2 through 5 discuss in detail the nuclear powerplant and its supporting fuel cycle, including various aspects of each element from fuel supply to waste management. Additional dimension is brought to the discussion by Chapters 6 and 7, which cover the Federal regulation of nuclear power and the nuclear export industry. This vast body of thoroughly documented information offers the reader a useful tool in evaluating the record and potential of nuclear energy in the United States

  16. The role of quality assurance in the nuclear industry

    International Nuclear Information System (INIS)

    1985-01-01

    The paper reports on the proceedings of a one day conference on ''the role of quality assurance in the nuclear industry'', presented by the British Nuclear Forum Working Group on Quality Assurance, 1985. The conference reviews the application and effectiveness of the British Standards in the light of experience with the AGR programme, and considers the lessons learned that will benefit future projects. Seven papers are presented at the conference, of which five deal with the AGR experience with respect to quality assurance in design and manufacture. The remaining two papers examine quality assurance in computing software and building on the AGR experience. All seven papers are selected for INIS and indexed separately. (U.K.)

  17. The future of nuclear energy in the enlarged European Union

    International Nuclear Information System (INIS)

    Comsa, Olivia; Mingiuc, C.; Paraschiva, M.V.

    2002-01-01

    should determine which, if any, of the technologies and designs will succeed - and which will not. If new plants are to be built, greater Public acceptance might be realised if they meet the same high level of safety standards throughout the Union. Here the Commission has a very important role to play together with the nuclear regulators and the industry. Greater transparency, better communication and more involvement by the Public in the decision making process - coupled with political will have to address, rather than avoid, the issues - will create the basis for the future of nuclear energy in Europe and elsewhere in the world. (authors)

  18. Elimination of nuclear power in Italy - Consequences and future; Avveckling av kaernkraften i Italien - Konsekvenser och framtid

    Energy Technology Data Exchange (ETDEWEB)

    Mascanzoni, D

    1995-08-01

    The report describes how the elimination of nuclear power has affected power production, industry and education in Italy. A referendum after the Chernobyl accident led to the phase-out, after 20 years of operation. The most important consequence has been to loss of competence in an area where Italy has been advanced for several years. Industry, in particular, has lost most of its competence, and universities have lost most of the students in reactor technology. Dependence on foreign energy supply is highest among the industrialized countries. The future for nuclear power is also discussed, changes in the political climate can make room for a return of nuclear power. 22 refs, 4 figs.

  19. The modern trends in energy and nuclear industry of Kazakhstan

    International Nuclear Information System (INIS)

    Kenzhemurat, D.; Sergey, K.; Timur, A.

    2000-01-01

    Kazakhstan has in perspective the potential to be self-sufficient in energy resources and also to export such resources to other countries. This article describes the energy sector of Kazakhstan, the perspectives of the development the energy and nuclear industry and shows the problems and methods of its solutions. The energy sector of Kazakhstan has diversified sources of energy resources. The open market of electricity will generate the investments and direct them to the development for more efficiency use of these resources. Rehabilitation of old power stations and their modernisation will allow to cover the future needs of Kazakhstan. The nuclear industry of Kazakhstan has the infrastructure, high-qualified staff, enterprises, reactors and investments for the development. The energy policy of the Republic of Kazakhstan is directed to find the balance between different sources of energy to decrease the emissions of greenhouse gas. (author)

  20. The Canadian nuclear industry - a national asset

    International Nuclear Information System (INIS)

    1985-03-01

    The economic importance of the Canadian nuclear industry in saving costs and creating jobs is expounded. The medical work of Atomic Energy of Canada Limited is also extolled. The Canadian Nuclear Association urges the federal government to continue to support the industry at home, and to continue to promote nuclear exports. This report was prepared in response to the Federal Finance Minister's 'A New Direction for Canada'

  1. Nuclear power - the future

    International Nuclear Information System (INIS)

    Hann, J.

    1991-01-01

    It is asserted by the author that nuclear power is the only available resource - indeed the only solution to an ever-increasing demand for energy in the United Kingdom over the next 50-100 years. It must be the cornerstone of a practical integrated energy policy, covering that sort of time-scale. In fact, it is going to be a strategic necessity. In this paper the background to establishing a policy is sketched. An explanation is given of what the nuclear industry is doing so as to ensure that the nuclear option is very definitely retained as a result of the 1994 Review of nuclear power in the UK. (author)

  2. Nuclear industry is ready for digitalization

    International Nuclear Information System (INIS)

    Le Ngoc, B.

    2017-01-01

    Nuclear industry is now embracing the digital revolution by adapting existing digital technologies concerning big data, additive manufacturing, connected objects or enhanced reality to the constraints of nuclear industry. The expected benefits will be manifold: to assure and improve the competitiveness of new reactors, to accelerate the implementation of innovations, to develop preventive maintenance, and to allow a better communication between teams working on the same project. In some big enterprises a chief digital officer has been commissioned to prioritize the introduction of digital technologies in industrial projects. (A.C.)

  3. Environmental impact of the nuclear industry in China

    International Nuclear Information System (INIS)

    Pan Ziqiang; Wang Zhibo; Chen Zhuzhou; Zhang Yongxing; Xie Jianlun

    1996-01-01

    Since its foundation in 1955, the nuclear industry has become a comprehensive industrial, scientific and technical system in China. The nuclear industry has obviously brought great profit to the country, but how much environmental effect it has caused is a question of common interest which we should answer. This report shows the environmental assessment of the nuclear fuel cycle in China. (author). 4 refs, 1 fig., 22 tabs

  4. Nuclear power - the future

    International Nuclear Information System (INIS)

    Hawley, R.

    1993-01-01

    Following the Coal Review earlier this year, the UK government took the decision to bring forward the Nuclear Review from 1994 to this year. When the nuclear element was removed from the privatisation of the UK electricity industry, decommissioning costs were perceived to be too great a burden for the private sector to bear. Four years on a more optimistic picture is beginning to emerge. (author)

  5. Which Future for Nuclear Power Beyond the Year 2000

    International Nuclear Information System (INIS)

    Carle, Remy

    1990-01-01

    In today's world, and most certainly in the future, a growing number of people seek a better life - with continuing progress. To achieve this, they need more and more energy and electricity. There is, of course, a limit to this increase; the world population will stabilize and advances in energy consumption practices will limit waste. I do not intend to speculate on figures for the future; I prefer to restrict myself to present-day facts and figures: eight billion metric tons of oil equivalent are consumed each year, a quarter of which is in the form of electricity. And of this electricity, nuclear power supplies 20%. Forecasting the future is a tricky business, especially when six years of construction lie ahead, followed by forty years of industrial 'life'. I am prepared to make such forecasts, though, as my convictions are based on three extremely solid reasons. These may not seem very original and some of you have perhaps heard me give them before; however, they are sound and will remain so for many years to come. Nuclear energy guarantees security in three major areas: energy policies, the environment and the economy

  6. Preservation of nuclear talented experts in Japan by cooperation of industries, research institutes and universities

    International Nuclear Information System (INIS)

    Mori, H.; Miura, K.

    2004-01-01

    Japan has enjoyed decades-long successful development of nuclear power generation and has a nuclear generating capacity of about 46,000,000 kilowatts at present. Construction of a commercial reprocessing plant in Rokkasho is nearing completion. The continuation of Japan's nuclear technology and experience, however, and the challenge of securing technically trained human resources for the future, present serious problems. Recognizing this, the nuclear industry, universities and research institutes have joined in new cooperative efforts to find network-oriented solutions. (author)

  7. Nuclear energy of the future, solar energy of the future: some convergencies

    International Nuclear Information System (INIS)

    Flamant, G.

    2006-01-01

    Most medium- and long-term energy scenarios foresee the joint development of renewable and nuclear energies. In other words, the energy sources must be as various as possible. Among the renewable energy sources, the solar energy presents the highest development potential, even if today the biomass and wind energies are quantitatively more developed. In France, the solar power generation is ensured by photovoltaic systems. However, the thermodynamical conversion of solar energy (using concentrating systems) represents an enormous potential at the world scale and several projects of solar plants are in progress in Spain and in the USA. The advantages of this solution are numerous: high efficiency of thermodynamic cycles, possibility of heat storage and hybridization (solar/fuels), strong potential of innovation. Moreover, the solar concentrators allow to reach temperatures higher than 1000 deg. C and thus allow to foresee efficient thermochemical cycles for hydrogen generation. The future solar plants will have to be efficient, reliable and will have to be able to meet the energy demand. In order to reach high thermodynamic cycle efficiencies, it is necessary to increase the temperature of the hot source and to design combined cycles. These considerations are common to the communities of researchers and engineers of both the solar thermal and nuclear industries. Therefore, the future development of generation 4 nuclear power plants and of generation 3 solar plants are conditioned by the resolution of similar problems, like the coolants (molten salts and gases), the materials (metals and ceramics), the heat transfers (hydrogen generation), and the qualification of systems (how solar concentrators can help to perform qualification tests of nuclear materials). Short communication. (J.S.)

  8. Factors affecting the future of nuclear power in OECD Europe

    International Nuclear Information System (INIS)

    Thompson, S.

    1997-01-01

    This report provides a brief review of nuclear power in OECD Europe and addresses the prospects for its future over, say, the next quarter century. Most of the data and findings are drawn from studies published by the Nuclear Energy Agency (NEA) of the Organisation for Economic Co-operation and Development (OECD). The NEA is a small agency with a rather modest budget whose 27 members are industrialized countries from North America, Asia and Europe. The Agency works to pool the expertise of our member countries to produce technical, economic and legal work of considerable depth and quality addressing issues of common interest to those countries. Our work covers such fields as nuclear science, nuclear power economics, nuclear safety, radiation protection, waste management and nuclear liability. The studies carried out in the framework of the Agency require fewer resources than would be needed by our member countries if they were to pursue them individually, which is especially important at a time of cut-backs in national programmes in such critical areas as nuclear safety research. (author)

  9. The nuclear industry - pollution and risks

    International Nuclear Information System (INIS)

    Fremlin, J.H.

    1985-01-01

    Unlike other power sources, the only pollution from the nuclear industry is radioactive pollution, which on average in Britain represents 0.2% of the annual dose due to natural background radiation. This 0.2% is not spread uniformly over the population and there is genuine concern about its effects where it is most concentrated. The only significant doses of radiation to the general public due to the nuclear industry are derived from the spent-fuel reprocessing plant at Sellafield, and in particular from the concentration of Caesium-134 and Caesium-137 in fish, Ruthenium-106 in edible seaweeds and plutonium in shellfish and in silt. The concern about the possible escape of high-level wastes stored at the Sellafield site is discussed, and the hazard compared with that dangerous chemicals stored at other industrial sites. The effects of pollution by the nuclear industry, based on the conventional and generally accepted view of radiation risks, add up to a few deaths per year in the 50 million population of England and Wales from an industry producing 15% of the electricity needs of those countries. When this is compared with the risk associated with other methods of electricity production, the author concludes that replacement by nuclear power of any major source of power using fossil fuel, with the possible exception of natural gas, would save lives

  10. The European nuclear industry - an overview

    International Nuclear Information System (INIS)

    Berke, Claus

    1994-01-01

    In his talk, the President of Foratom, Dr. Claus Berke, reviews the present state of the nuclear industry in Europe. The European nuclear park is still the largest of any region in the world. In some countries, there has been a moratorium on new construction in recent years. This has made life for the supplying industry very difficult. One positive side-effect o at has been a significant rationalisation of the industry. In the course of this the previous vertical integration within European states has given place to the creation of important new transnational structures. In his talk, Dr. Berke describes some of the most important facets of the 'Europeanisation' of the industry, both in the area of power-plants and of the nuclear fuel-cycle. He also describes the increasing cooperation between utilities and suppliers in Western Europe and the operators of nuclear power plant in Eastern Europe, which is aimed at introducing a safety culture and an institutional framework in the East as close as possible to that which exists in Western Europe. Dr. Berke concludes that, over the coming years, both economic and environmental arguments will start to reverse the present political opposition, in many European countries, to new building programmes, and that the industry is likely be in a healthier state by the end of the decade

  11. Nuclear systems of the future. Stakes, R and D strategy, and international cooperation

    International Nuclear Information System (INIS)

    2005-01-01

    As demonstrated by prospective studies, nuclear energy will represent a decisive contribution in the future energy mix. The long-term strategy of development of nuclear energy requires to foresee a new generation of nuclear systems, named generation 4. The goal of these new systems is to optimize the use of nuclear fuels, to minimize the generation of wastes and to enlarge the field of applications of nuclear energy to other applications like: hydrogen and synthetic fuels generation, heat generation for the industry etc. This document presents the French R and D strategy on nuclear systems of 4. generation that has been approved by the public authorities. This strategy follows three axes: a priority research on fast neutron systems with fuel recycle (sodium fast reactors (SFR) and gas fast reactors (GFR)), a research on key-technologies for the supply of very high temperature heat (very high temperature reactor (VHTR), fast and thermal neutron reactors, and water decomposition processes), and a continuation of researches on PWR reactors improvement. An integral recycling of all actinides in fast neutron reactors requires the development of new fuel reprocessing and fuel re-fabrication processes. A reference scenario for the progressive renewal of French nuclear facilities foresees the simultaneous development of fast neutron systems and the start-up of a new spent fuel reprocessing plant. France in involved in the development of the SFR, GFR and VHTR systems thanks to its participation to the Generation 4 international forum and to bilateral cooperation with other big nuclear partners like Russia and China. One of the main stakes of the French nuclear industry is to be able to invest in the R and D of future nuclear systems in order to valorize the experience gained so far in sodium FBR systems and in fuel cycle processes. (J.S.)

  12. Transforming and Building the Future Energy Industry

    Energy Technology Data Exchange (ETDEWEB)

    Ellis, Vernon

    1998-12-31

    The petroleum industry is experiencing unprecedented change: increasing competition within a global context, deregulation in the European gas market, technological innovation that will fundamentally alter the economics of the industry. Sustainable Development, the challenge of balancing the Financial, Social and Environmental demands: collectively these demands are fundamentally altering the future shape of the industry. In this presentation the author describes his perspectives on the impact of change on the future shape of the energy industry in the years to come

  13. Transforming and Building the Future Energy Industry

    Energy Technology Data Exchange (ETDEWEB)

    Ellis, Vernon

    1999-12-31

    The petroleum industry is experiencing unprecedented change: increasing competition within a global context, deregulation in the European gas market, technological innovation that will fundamentally alter the economics of the industry. Sustainable Development, the challenge of balancing the Financial, Social and Environmental demands: collectively these demands are fundamentally altering the future shape of the industry. In this presentation the author describes his perspectives on the impact of change on the future shape of the energy industry in the years to come

  14. Atomic nanoscale technology in the nuclear industry

    CERN Document Server

    Woo, Taeho

    2011-01-01

    Developments at the nanoscale are leading to new possibilities and challenges for nuclear applications in areas ranging from medicine to international commerce to atomic power production/waste treatment. Progress in nanotech is helping the nuclear industry slash the cost of energy production. It also continues to improve application reliability and safety measures, which remain a critical concern, especially since the reactor disasters in Japan. Exploring the new wide-ranging landscape of nuclear function, Atomic Nanoscale Technology in the Nuclear Industry details the breakthroughs in nanosca

  15. Industrial nuclear gauges

    International Nuclear Information System (INIS)

    Bennerstedt, T.

    1986-01-01

    A great number of industrial nuclear gauges are used in Sweden. The administrative routines for testing, approval and licensing are briefly described. Safety standards, including basic ICRP criteria, are summarized and a theoretical background to the various measuring techniques is given. Numerous practical examples are given. (author)

  16. Preliminary cost estimating for the nuclear industry

    International Nuclear Information System (INIS)

    Klumpar, I.V.; Soltz, K.M.

    1985-01-01

    The nuclear industry has higher costs for personnel, equipment, construction, and engineering than conventional industry, which means that cost estimation procedures may need adjustment. The authors account for the special technical and labor requirements of the nuclear industry in making adjustments to equipment and installation cost estimations. Using illustrative examples, they show that conventional methods of preliminary cost estimation are flexible enough for application to emerging industries if their cost structure is similar to that of the process industries. If not, modifications can provide enough engineering and cost data for a statistical analysis. 9 references, 14 figures, 4 tables

  17. NIASA: Nuclear Industry Association of South Africa

    International Nuclear Information System (INIS)

    Mollard, P.; Louf, P.H.; Gentet, G.; Doix, G.

    2015-01-01

    NIASA (Nuclear Industry Association of South Africa) aims at promoting the highest standards in the development and use of nuclear technologies. NIASA was founded in 2007. South-Africa has a long history in nuclear activity since the construction of the first nuclear power plant ever built on African soil was commissioned in 1984 in South-Africa (Koeberg plant equipped with two 900 MW reactors). There is also an important center for nuclear research near Pretoria that was founded in 1948 to regulate the prospecting for uranium. NECSA (South African Nuclear Energy Corporation is a state-owned public company) that manages nuclear research, operates the Safari-1 (2 MWe - commissioned in 1965) research reactor and manages the national radioactive waste center located at Vaalputs. The South African nuclear industry employs about 4000 people. (A.C.)

  18. The World Nuclear Industry Status Report 2012

    International Nuclear Information System (INIS)

    Schneider, Mycle; Froggatt, Antony; Hazemann, Julie

    2012-07-01

    Twenty years after its first edition, World Nuclear Industry Status Report 2012 portrays an industry suffering from the cumulative impacts of the world economic crisis, the Fukushima disaster, ferocious competitors and its own planning and management difficulties. The report provides a global overview of the history, the current status and trends of nuclear power programs in the world. It looks at units in operation and under construction. Annex 1 also provides detailed country-by-country information. A specific chapter assesses the situation in potential newcomer countries. For the first time, the report looks at the credit-rating performance of some of the major nuclear companies and utilities. A more detailed chapter on the development patterns of renewable energies versus nuclear power is also included. The performance of the nuclear industry over the 18 months since the beginning of 2011 is summed up in this report

  19. Future nuclear systems, Astrid, an option for the fourth generation: preparing the future of nuclear energy, sustainably optimising resources, defining technological options, sodium-cooled fast reactor

    International Nuclear Information System (INIS)

    Ter Minassian, Vahe

    2016-01-01

    Energy independence and security of supplies, improved safety standards, sustainably optimised material management, minimal waste production - all without greenhouse gas emissions. These are the Generation IV International Forum specifications for nuclear energy of the future. The CEA is responsible for designing Astrid, an integrated technology demonstrator for the 4. generation of sodium-cooled fast reactors, in accordance with the French Sustainable Nuclear Materials and Waste Management Act of June 28, 2006, and funded as part of the Investments for the Future programme enacted by the French parliament in 2010. Energy management - a vital need and a factor of economic growth - is a major challenge for the world of tomorrow. The nuclear industry has significant advantages in this regard, although it faces safety, resource sustainability, and waste management issues that must be met through continuing technological innovation. Fast reactors are also of interest to the nuclear industry because their recycling capability would solve a number of problems related to the stockpiles of uranium and plutonium. After the resumption of R and D work with EDF and AREVA in 2006, the Astrid design studies began in 2010. The CEA, as owner and contracting authority for this programme, is now in a position to define the broad outlines of the demonstrator 4. generation reactor that could be commissioned during the next decade. A sodium-cooled fast reactor (SFR) operates in the same way as a conventional nuclear reactor: fission reactions in the atoms of fuel in the core generate heat, which is conveyed to a turbine generator to produce electricity. In the context of 4. generation technology, SFRs represent an innovative solution for optimising the use of raw materials as well as for enhancing safety. Here are a few ideas advanced by the CEA. (authors)

  20. Radiation safety in nuclear industry in retrospect and perspective

    International Nuclear Information System (INIS)

    Pan Ziqiang

    1993-01-01

    More than 30 years have passed since the starting up of nuclear industry in China from the early 1950's. Over the past 30-odd years, nuclear industry has always kept a good record in China thanks to the policy of 'quality first, safety first' clearly put forward for nuclear industry from the outset and a lot of suitable effective measures taken over that period. Internationally, there is rapid progress in radiation protection and nuclear safety (hereafter refereed to as radiation safety) and a number of new concepts in the field of radiation protection have been advanced. Nuclear industry is developing based on the international standardization. To ensure the further development of nuclear utility, radiation safety needs to be further strengthened

  1. Recruiting program for the future R and D leader in nuclear science and technology

    International Nuclear Information System (INIS)

    Kim, Wonho; Kim, Inchul; Min, Hwanki; Park, Jungseung; Jung, Sung Hyon; Jeong, Bitna; Choi, Myound Jong

    2012-04-01

    The national projects of advanced nuclear system development are underway, however, there was little in their need for human resources in the development of nuclear industry and in the nuclear R and D program for the last 10 years. At the same time, a large portion of well-experienced expert in the national research institute and the industry, are getting old and retired, drastically. They faced an unbalanced situation in their supply and demand of human resources in the field of nuclear science and technology. Bring up the experts such as scientists and engineers in nuclear technology makes an important issue as a national agenda. Regardless of the economically stagnated situation in the country, KAERI(Korea Atomic Energy Research Institute) has hired young nuclear scientists and engineers continuously since 2006 last, in order to substitute the increasing retired experts. However, they need more well-brought-up nuclear scientists and engineers in the near future, as a leader of nuclear science and technology. Through this project, we try to recruit a leader of nuclear science and technology, who can create and carry out the world top class R and D programme

  2. Sustaining the future: the role of nuclear power in meeting future world energy needs

    International Nuclear Information System (INIS)

    Duffey, R.; Sun, Y.

    2003-01-01

    A description is given of recently informed analyses showing the potential that nuclear power has in meeting global energy demands. For both the electricity and transportation sectors, we can quantify the beneficial effects on the environment, and we show how nuclear power deserves credit for its role in assisting future world energy, environmental and economic sustainability. The continuing expansion of the world's and Asia's energy needs, coupled with the need to reduce greenhouse gas (GHG) and other emissions, will require new approaches for large scale energy production and use. This is particularly important for China and Asia with respect to meeting both the energy demand and sustainability challenges. We show and explore the role of nuclear power for large-scale energy applications, including electricity production and hydrogen for transportation. Advanced nuclear technologies, such as those like CANDU's next generation ACR, can meet future global energy market needs, avoid emissions, and mitigate the potential for global climate change. We use the latest IPCC Scenarios out to the year 2100 as a base case, but correct them to examine the sensitivity to large scale nuclear and hydrogen fuel penetration. We show a significant impact of nuclear energy on energy market penetration, and in reducing GHGs and other emissions in the coming century, particularly in the industrial developing world and in Asia. This is achieved without needing emissions credits, as are used or needed as economic support for other sources, or for subsidies via emissions trading schemes. Nuclear power offers the relatively emissions-free means, both to provide electricity for traditional applications and, by electrolytic production of hydrogen, to extend its use deep into the transportation sector. For the published IPCC Marker Scenarios for Asia we show the reduction in GHG emissions when electrolysis using electricity from nuclear power assists the introduction of hydrogen as a fuel

  3. European PV industry -- The future beckons

    International Nuclear Information System (INIS)

    Shah, D.J.

    1994-01-01

    The author believes that there are reasons to believe that the solar industry is poised on the brink of rapid commercial growth, leading to broadly-based industry viability. The author discusses the role that the European solar industry has to play in helping to bring about a better future. He begins his discussion with the current state of the European industry and follows with recommendations of what the European industry should be doing to encourage the solar industry growth

  4. Knowledge management for nuclear industry operating organizations

    International Nuclear Information System (INIS)

    2006-10-01

    The nuclear energy sector is characterized by lengthy time frames and technical excellence. Early nuclear plants were designed to operate for 40 years but their service life now frequently extends between 50 and 60 years. Decommissioning and decontamination of nuclear plants will also be spread over several years resulting in a life cycle - from cradle to grave - in excess of 100 years, which gives rise to two challenges for the nuclear industry: (1) Retention of existing skills and competencies for a period of over fifty years, particularly in countries where no new nuclear power plants are being planned; and (2) Development of new skills and competencies in the areas of decommissioning and radioactive waste management in many industrialized countries if younger workers cannot continue to be attracted to the nuclear disciplines. As many nuclear experts around the world are retiring, they are taking with them a substantial amount of knowledge and corporate memory. Typically, these retirees are individuals who can answer questions very easily and who possess tacit knowledge never before extracted from them. The loss of such employees who hold knowledge critical to either operations or safety poses a clear internal threat to the safe and reliable operation of nuclear power plants (NPPs). Therefore, the primary challenge of preserving such knowledge is to determine how best to capture tacit knowledge and transfer it to successors. These problems are exacerbated by the deregulation of energy markets around the world. The nuclear industry is now required to reduce its costs dramatically in order to compete with generators that have different technology life cycle profiles. In many countries, government funding has been dramatically reduced or has disappeared altogether while the profit margins of generators have been severely squeezed. The result has been lower electricity prices but also the loss of expertise as a result of downsizing to reduce salary costs, a loss of

  5. Personal radiation protection in nuclear industry

    International Nuclear Information System (INIS)

    Gol'dshtejn, D.S.; Koshcheev, V.S.

    1983-01-01

    Specific peculiarities of organization of personal radiation protection at various nuclear industry enterprises when dealing with radioactive and other toxic substances are illuminated. Effect of heatin.g and cooling microclimate is discussed. Medical and technical requirements for personal protection means and tasks of personal protection in the field of nuclear industry are considered in short along with some peculiarities of application of different kinds of personal protection means and psychological aspects of personnel protection

  6. Key issues in space nuclear power challenges for the future

    Science.gov (United States)

    Brandhorst, Henry W., Jr.

    1991-01-01

    The future appears rich in missions that will extend the frontiers of knowledge, human presence in space, and opportunities for profitable commerce. Key to the success of these ventures is the availability of plentiful, cost effective electric power and assured, low cost access to space. While forecasts of space power needs are problematic, an assessment of future needs based on terrestrial experience has been made. These needs fall into three broad categories: survival, self sufficiency, and industrialization. The cost of delivering payloads to orbital locations from LEO to Mars has been determined and future launch cost reductions projected. From these factors, then, projections of the performance necessary for future solar and nuclear space power options has been made. These goals are largely dependent upon orbital location and energy storage needs. Finally the cost of present space power systems has been determined and projections made for future systems.

  7. Current nuclear industry practices with regard to the integration of surveillances

    International Nuclear Information System (INIS)

    Stewart, M.; Smith, C.

    1992-04-01

    Commercial nuclear industry practices regarding the integration of technical specification (TS) surveillance and maintenance activities are identified in this report. A questionnaire was developed and used to obtain current industry practices from NRC Regional personnel and INEL engineers with utility experience. Some of these practices indicate that the scheduling of TS surveillance and maintenance items could be more effectively coordinated. Also, must utilities do not formally consider risk implications when they are scheduling maintenance. Methodologies and approaches for proposing and evaluating changes to improve the integration of TS surveillance and maintenance activities have been identified for planned future work

  8. Fourth youth scientifically-practical conference Nuclear-industrial complex of Ural: problems and prospects. Theses of reports

    International Nuclear Information System (INIS)

    2007-01-01

    Theses of reports of the Fourth youth scientifically-practical conference Nuclear-industrial complex of Ural: problems and prospects (18-20 April 2007, Ozersk) are presented. The book contains theses of reports of the seventh subject sections: NFC: science and industry; Ecological problems in NFC development: radiation safety, radioecology and radiobiology; Nuclear power engineering: economics, safety, field experience; Atomic branch: history, today and future; New technologies in education. Education and training for NFC plants, public opinion; Information technologies and telecommunications; Long-term science intensive technologies and new materials [ru

  9. International research and development projects in nuclear energy: Experience and future prospects

    International Nuclear Information System (INIS)

    Strohl, P.

    1983-01-01

    From the very beginning nuclear energy appeared as a fruitful field for international co-operation and particularly for international projects and joint ventures. By pooling scientific, technical and financial resources, the participating countries sought to promote the development of technology and the transition of nuclear energy to the industrial stage. Governments and therefore intergovernmental organizations were the driving force behind the establishment of joint projects in various R and D sectors, often in association with industry and private research institutes. The situation changed considerably from the end of the 1960s onwards. Despite some remarkable technical achievements, international co-operation did not develop to the extent predicted at the outset. Industry took over in the exploitation of proven technologies, and industrial co-operation agreements have become an important feature in some key areas of nuclear energy. This trend raises questions as to the future of joint R and D projects organized through intergovernmental co-operation. Although such projects are still very useful, they tend to be concentrated in those few sectors which continue to be of direct interest to the Governments; for instance, fundamental research, radioactive waste management and nuclear safety. The position of nuclear energy has changed, and the benefits to be drawn from this form of international co-operation must be critically re-assessed accordingly. While advantage to be gained from international projects for countries which are the most advanced in the development of nuclear energy is not the same as it was at the beginning, the transfer of experience and knowledge to less advanced countries is still the main concern of projects dealing with safety and regulatory matters. The experience thus gained provides a very useful insight into the legal and institutional framework of joint projects

  10. Business environment of nuclear power industry in Korea

    International Nuclear Information System (INIS)

    Lee, Yoon Young

    2003-01-01

    In Korea, there are total of 18 Nuclear Power Plants in operation as of the end of 2002 and 6 more plants are under construction. The first project for the Advanced Power Reactor (APR) 1400 nuclear power plant is being launched to provide reliable electricity economical competitiveness in Korea. The competitive business environment both globally and in Korea, where the power industry is undergoing significant restructuring, is requiring the Korean nuclear industry to continually improve the economic associated with nuclear power. Introduction of the APR 1400 design and continued improvement of local capabilities are two of the ways that the industry is responding to the challenge. (author)

  11. The future of nuclear energy

    International Nuclear Information System (INIS)

    Schmidt-Kuester, W.J.

    2000-01-01

    Europe is one of the world leaders in nuclear technology advancement. The development of spent fuel reprocessing is but one example of this. This process continues today with the development by France and Germany of the European Pressurised-Water Reactor. Nuclear research and development work is continuing in Europe, and must be continued in the future, if Europe is to retain its world leadership position in the technological field and on the commercial front. If we look at the benefits, which nuclear energy has to offer, in economic and environmental terms, 1 support the view that nuclear is an energy source whose time has come again. This is not some fanciful notion or wishful thinking. There is clear evidence of greater long-term reliance on nuclear energy. Perhaps we do not see new nuclear plants springing up in Europe, but we do see ambitious nuclear power development programmes underway in places like China, Japan and Korea. Closer to home, Finland is seriously considering the construction of a new nuclear unit. Elsewhere, in Europe and the US, we see a growing trend towards nuclear plant life extension and plant upgrades geared towards higher production capacity. These are all signs that nuclear will be around for a long time to come and that nuclear will indeed have a future

  12. Review of human factors R and D in the nuclear power industry

    International Nuclear Information System (INIS)

    Parris, H.L.

    1986-01-01

    The history of human factors (HF) R and D in the nuclear power industry can clearly be divided into two phases: pre- and post-Three Mile Island (TMI). Pre-TMI, most people in the industry were unfamiliar with the discipline and its contributions to military and space system designs, and the number of HF professionals involved with nuclear power could essentially be counted on the fingers of two hands. Consequently, there was little research into the improvement of plant man/machine interfaces. The picture changed dramatically in the aftermath of TMI as investigation after investigation pointed to deficiencies in the operator/control room interface, training, procedures, communications, and organizational effectiveness. This paper first outlines pre-TMI events, then examines the post-TMI scenario, and concludes with summary observations and suggestions for future efforts

  13. Nuclear energy for technology and industry

    International Nuclear Information System (INIS)

    Kemeny, L.G.

    1987-01-01

    It is a sad commentary on the complete lack of informed realism of the Government and people of Australia that, after thirty years of vacillation and political chicanery, nuclear technology, one of this nation's potential ''sunrise industries'' is in its death throes. Whilst our third world neighbours, in particular Indonesia, Malaysia, the Philippines, the People's Republic of China and even impoverished Bangladesh are making giant strides to develop an autonomous expertise Australia's potential has been dissipated and its opportunities for leadership and technology transfer lost. By chance this paper was written some weeks before the nuclear accident at Chernobyl (U.S.S.R.) and many years after accidents at the Three Mile Island nuclear power plant (U.S.A.) and the plutonium production reactor at Windscale (U.K.). None of these incidents alter the basic arguments or conclusions contained in this manuscript. (See Appendix). The year 1986 might represent the final opportunity for concerned professionals to seek to improve the quality of public education and information to end ''the war against the atom''. It will be necessary to re-motivate the public and private sector of a demoralised technology and to launch it on a road of responsible and successful expansion unshackled by beaurocratic interference. It is the purpose of this paper to examine why the first three decades of nuclear technology in Australia have been so singularly unsuccessful and to discuss a coherent and rational implementation of plans and policies for the future. (author)

  14. The nuclear industries in the European community

    International Nuclear Information System (INIS)

    Anon.

    1986-01-01

    The paper discusses the nuclear industries within the European Community. The strategic importance of nuclear energy is outlined, along with the economic benefits of nuclear power. The objectives of the Community's nuclear programme are described, and include nuclear requirements in Europe, uranium supplies and management of radioactive waste. (UK)

  15. Nuclear techniques in industry

    International Nuclear Information System (INIS)

    Hammad, F.H.

    1994-01-01

    Nuclear techniques are utilized in almost every industry. The discussion in this paper includes discussions on tracer methods and uses nucleonic control systems technology; non-destructive testing techniques and radiation technology. 1 fig., 2 tabs

  16. Nuclear dual-purpose plants for industrial energy

    International Nuclear Information System (INIS)

    Klepper, O.H.

    1976-01-01

    One of the major obstacles to extensive application of nuclear power to industrial heat is the difference between the relatively small energy requirements of individual industrial plants and the large thermal capacity of current power reactors. A practical way of overcoming this obstacle would be to operate a centrally located dual-purpose power plant that would furnish process steam to a cluster of industrial plants, in addition to generating electrical power. The present study indicates that even relatively remote industrial plants could be served by the power plant, since it might be possible to convey steam economically as much as ten miles or more. A survey of five major industries indicates a major potential market for industrial steam from large nuclear power stations

  17. Applications of nuclear energy in future

    International Nuclear Information System (INIS)

    Sitek, J.; Necas, V.

    2012-01-01

    Concepts and international frames of generation IV nuclear reactors. A review of use of nuclear energy for non electric applications especially in areas such as seawater desalination, hydrogen production, district heating and other industrial applications. (Author)

  18. The nature of expertise and human resource functions supporting expertise in nuclear industry organizations

    International Nuclear Information System (INIS)

    Rintala, N.; Katri, S.; Eila, J.; Pahkin, K.; Anneli, L.

    2007-01-01

    Full text: The nuclear industry worldwide faces the challenge of preserving the existing expertise, competence and knowledge despite of the ageing workforce and upcoming retirements. Challenges are also imposed by the reducing amount of new recruits and students entering the nuclear industry, which amounts to fewer young professionals that have the potential to become nuclear experts in the future. Although many other industries share similar challenges, the preservation of expertise in the nuclear industry is even more important due to the safety-critical nature of the nuclear operations and the special characteristics that high-reliability organizations such as nuclear power plants have. As a response to the risk of knowledge loss, nuclear organizations have engaged in knowledge capturing efforts. New information systems and organizational practices have been implemented to safeguard nuclear expertise. Recently, IAEA has proposed nuclear organizations to design and adopt people-centered programs that encompass themes such as workforce planning, recruitment, training, succession planning, leadership development and knowledge management. Thus, in order to address the current risks to nuclear expertise, attention should be focused on these different areas and corresponding human resources (HR) functions within the nuclear organizations. Our paper presents results from a project which examines the nature of expert work and human resources (HR) functions that support the development and preservation of expertise. The study adopts a qualitative cross-sectional case study design. Two organizational units from different nuclear industry organizations have been selected as cases. The research data will be gathered in April-May 2007 and preliminary results will be presented in the International Conference of Knowledge Management in Nuclear Facilities, in June 2007. The main data will comprise of thematic interviews to experts, their managers and HR representatives

  19. Prospects of nuclear industry in Latin American

    International Nuclear Information System (INIS)

    Brito, S.; Consentino, J.; Eibenschuts, J.; Gasparian, A.E.; Lepecki, W.; Mueller, A.E.F.; Spitalnik, J.

    1984-01-01

    The prospects of nuclear generation in Latin America are presented. It is mentioned that prior to the implementation of a nuclear power programme a legal, organizational and industrial infrastructure has to be developed as a condition for an effetive technology transfer. It is also mentioned that by the expansion of regional cooperation, existing experience and know-how in Latin America nuclear industry, specially regarding small and medium power reactors, could become an important development factor for the whole region. (R.S.) [pt

  20. Trends which will shape our nuclear future

    International Nuclear Information System (INIS)

    Bray, A.P.

    1984-01-01

    The technology record of the US nuclear industry is excellent. The design and safety record of the light water reactor has made nuclear programs in countries which lack the US societal and administrative structures very successful. The challenges facing the US program are institutional. Through more sensible regulation, financing reform, and the recognition of safety improvements, our society can capitalize on the benefits of current light water technology. Nuclear industry regulators should recognize, encourage, and give credit for the investment protection efforts taken on standard plants

  1. Dialogue between the nuclear industry and environmentalists is the key

    International Nuclear Information System (INIS)

    Padley, P.J.

    1987-01-01

    'Nuclear energy - the good news for British Industry' was the title of a meeting organised by the Confederation of British Industry in July 1987. This article summarizes the contributions of each of the speakers. Between them they produced figures on the importance of the nuclear industry in various countries including the USA, France and the United Kingdom. The risks were mentioned, also the public fears following the accident at Chernobyl. The UK policy on the disposal of nuclear waste is summarized. The disposal is not technically difficult, only politically so because of adverse public opinion. These points also emerged; the nuclear industry must liaise with environmentalists and the UK manufacturing industry needs low cost energy which the nuclear industry could supply. However, the long-term development of nuclear power is only possible if there are no more reactor accidents leading to injury by radioactivity. (U.K.)

  2. Outsourcing and the use of contractors in the nuclear power industry; Ulkoistaminen ja alihankkijoiden kaeyttoe ydinvoimateollisuudessa

    Energy Technology Data Exchange (ETDEWEB)

    Kettunen, J.; Reiman, T. [VTT Industrial Systems, Espoo (Finland)

    2004-01-01

    The purpose of the study was to produce an overview of outsourcing and the use of contractors in the nuclear power industry. Special attention was paid to the scope as well as drivers, objectives and constraints of outsourcing in the industry, applied models and practices, and experiences gained from the activity. In addition, the study was concerned with establishing how the licensees define and maintain their core competencies, and how outsourcing has impacted on nuclear safety. The study was based on a literature survey and a case study carried out at Olkiluoto nuclear power plant in Finland in 2003. Also other materials, such as interviews conducted in connection with other projects, were utilised when applicable. This report presents the main results of the study, tries to highlight some of the most important development trends in the industry, and comes up with future research needs. The topic has mainly been approached from the industry viewpoint with an emphasis on practical management challenges. (orig.)

  3. C. The nuclear industry in Europe

    International Nuclear Information System (INIS)

    1976-01-01

    Most of the European states have made a large commitment to nuclear power. In some aspects, such as fast breeder technology and oxide fuel reprocessing, they clearly lead the rest of the world. The industry is highly competitive, and is able to win contracts over US firms, even though the products offered are basically of US designs. It is also characterised by a large degree of co-operation and dependency amongst member countries. Many developments and services are of a joint nature. To ensure growth in the industry, and reduce foreign involvement, many of the governments have bought large segments of domestic companies, often from US firms. Government agencies themselves have transformed their service departments (such as those involved in the fuel cycle business) so that they now operate under the guise of commercial enterprises. These steps have arisen principally because of the large financial commitments normally associated with nuclear power. As a result of this, and despite the recent economic depression, the nuclear industry in Europe generally appears healthy. It does not seem to be suffering to the same extent from the problems that the industry in the USA is currently facing. Even though some states are experiencing a decrease in the projected rate of growth of energy demand, expectations are that an increasing proportion of energy requirements in most European countries will be met from nuclear power. The industry, both for the construction of generating capacity and fuel cycle services, is anticipating growth and financial profit

  4. The nuclear industry in the European Community

    International Nuclear Information System (INIS)

    Gasterstaedt, N.

    1990-01-01

    In its reference program of 1984, the Commission presented the guidelines for the objectives in the field of nuclear electricity production within the Community. In addition, the effects have been investigated which concern the realization of these objectives for all persons involved in nuclear energy: local government, utility companies and industry. The question of nuclear energy is part of the general energy policy. Therefore, the reference program of 1984 was one of the elements which has been considered up to 1995 by the Council when defining the objectives for energy economy. The guidelines of the Commission in the reference program of 1984 are still valid today. It is important, however, to check the effects of the completion of the internal market on nuclear industry. Therefore, the Commission announced in its working program of 1989 that it will revise the reference nuclear program with regard to the prospects of the European internal market. The present document fulfills this obligation. The problems of the industry for the design and construction of nuclear power plants are treated intentionally. After the Commission for Economic and Social Affairs has given its statement, the commission will publish the document officially. (orig./UA) [de

  5. Future demands for an Industrialized Architecture?

    DEFF Research Database (Denmark)

    Beim, Anne

    2011-01-01

    When speaking about the future demands for industrialized architecture – or how to translate industrialized processes into tectonic sustainable design strategies in architecture – several questions come to mind. First of all, why is the building industry in comparison to the production industry...... these questions raise a wide-spread discussion, one could argue that the building industry can benefit from different ways of architectural synthesis thinking as a basis for improving. This understood in such a way that industrialized manufacturing technologies and products should be driven by ideas...

  6. Nuclear industry - challenges in chemical engineering

    International Nuclear Information System (INIS)

    Sen, S.; Sunder Rajan, N.S.; Balu, K.; Garg, R.K.; Murthy, L.G.K.; Ramani, M.P.S.; Rao, M.K.; Sadhukhan, H.K.; Venkat Raj, V.

    1978-01-01

    As chemical engineering processes and operations are closely involved in many areas of nuclear industry, the chemical engineer has a vital role to play in its growth and development. An account of the major achievements of the Indian chemical engineers in this field is given with view of impressing upon the faculty members of the Indian universities the need for taking appropriate steps to prepare chemical engineers suitable for nuclear industry. Some of the major achievements of the Indian chemical engineers in this field are : (1) separation of useful minerals from beach sand, (2) preparation of thorium nitrate of nuclear purity from monazite, (3) processing of zircon sand to obtain nuclear grade zirconium and its separation from hafnium to obtain zirconium metal sponge, (4) recovery of uranium from copper tailings, (5) economic recovery of nuclear grade uranium from low grade uranium ores found in India, (6) fuel reprocessing, (7) chemical processing of both low and high level radioactive wastes. (M.G.B.)

  7. The refining industry and the future of the fuel oils

    International Nuclear Information System (INIS)

    Soleille, S.

    2004-01-01

    The fuel oils consumption decrease in France since 1970, because of the two petroleum crisis, the nuclear energy competition and the air pollution. The fuel oils industry is then looking other export possibilities. This report aims to offer a first approach of the problem and presents the main challenges. The first part is devoted to the technical context (definition, production and outlet. The second part presents the environmental context and the fuel oils market. In the third part the market is studied at the world scale, in the fourth at the french scale and in the fifth at the scale of other countries as United States, Japan and european Union. A synthesis tables is given in the last part to compare and propose some hypothesis concerning the future of fuel oils and the french refining industry. (A.L.B.)

  8. Industrial applications of nuclear technology

    International Nuclear Information System (INIS)

    Vargas, Celso

    2010-01-01

    Industrial applications of nuclear technology have been very diverse worldwide. This type of technology has begun to introduce in Costa Rica to evaluate and improve different industrial processes. These applications have been classified into two or three categories, according to the criteria used. Nucleonic control systems, the gamma logging and radiotracers are determined. (author) [es

  9. Nuclear energy - the future climate

    International Nuclear Information System (INIS)

    Ash, Eric Sir

    2000-01-01

    In June 1999, a report entitled Nuclear Energy-The Future Climate was published and was the result of a collaboration between the Royal Society and the Royal Academy of Engineering. The report was the work of a group of nine people, made up of scientists, engineers and an economist, whose purpose was to attempt a new and objective look at the total energy scene and specifically the future role of nuclear energy. This paper discusses the findings of that report. (author)

  10. International development of Japan's Nuclear Industry. Indispensable Japan-U.S. cooperation

    International Nuclear Information System (INIS)

    Saigo, Masao

    2006-01-01

    It is significant to internationally develop the nuclear power plants technology that has been fostered by Japan's nuclear industry. It is also important to work with taking the degree of development of nuclear power plants of the recipient country into consideration. ''Forum on International Development of Nuclear Industry'' organized by the Japan Atomic Industrial Forum, Inc. (JAIF) proposed it would be indispensable for a Japan's nuclear industry to establish a Japan-U.S. Cooperation with the support of Government in order to develop the nuclear technology internationally. In November 2005, the investigating team including utilities and nuclear industry visited U.S. and exchanged opinions on its possibility. Investigating results and their evaluation were described. (T.Tanaka)

  11. Diverting indirect subsidies from the nuclear industry to the photovoltaic industry: Energy and financial returns

    International Nuclear Information System (INIS)

    Zelenika-Zovko, I.; Pearce, J.M.

    2011-01-01

    Nuclear power and solar photovoltaic energy conversion often compete for policy support that governs economic viability. This paper compares current subsidization of the nuclear industry with providing equivalent support to manufacturing photovoltaic modules. Current U.S. indirect nuclear insurance subsidies are reviewed and the power, energy and financial outcomes of this indirect subsidy are compared to equivalent amounts for indirect subsidies (loan guarantees) for photovoltaic manufacturing using a model that holds economic values constant for clarity. The preliminary analysis indicates that if only this one relatively ignored indirect subsidy for nuclear power was diverted to photovoltaic manufacturing, it would result in more installed power and more energy produced by mid-century. By 2110 cumulative electricity output of solar would provide an additional 48,600 TWh over nuclear worth $5.3 trillion. The results clearly show that not only does the indirect insurance liability subsidy play a significant factor for nuclear industry, but also how the transfer of such an indirect subsidy from the nuclear to photovoltaic industry would result in more energy over the life cycle of the technologies. - Highlights: → The indirect insurance liability subsidy has been quantified over the life cycle of the U.S. nuclear fleet. → It was found to play a significant factor in the economics of the nuclear industry. → A transfer of such an indirect subsidy from the nuclear to photovoltaic industry would result in significantly more energy over the life cycle of the technologies.

  12. Managing nuclear knowledge and expertise - An industry perspective

    International Nuclear Information System (INIS)

    Garderet, Ph.

    2002-01-01

    Full text: The industrial demand for expertise and qualified personnel in nuclear sciences and technologies will obviously continue to be strong during the next decades: in all cases, a high level of competence will necessarily continue to be required to maintain high performances in operating current nuclear facilities (up to decommissioning) ; moreover, additional skills are to be engaged to conceive new projects or to propose new services for new industrial customers. The industrial needs evidently show some quantitative or qualitative specificities according to the strategy each country has adopted in the past or is adopting now for the use of nuclear power or other nuclear technologies. But the general trends concerning the access to qualified knowledge in nuclear sciences and technologies are globally the same, so concrete actions have to be taken as soon as possible to anticipate difficult situations and overcome the problems. In the countries where nuclear industry has been strongly developed during the past decades (for example France) the problem chiefly concerns the relative ageing of the human workforce and the ability to maintain the accumulated knowledge and replace technical expertise at the very moment when all the technological companies show a significant decline in the number of entrants in all the domain of science and engineering. The problem is reinforced by the fact that (strictly for the same reasons) this phenomenon is observed concurrently within the research laboratories, among the staff of the safety authorities and, more generally, in all the offices engaged in the decision making process about nuclear affairs. Part of the solution to these serious problems stands in the human resources policy that the main nuclear industries have to achieve : internal training through enterprise universities, auto-formation, tutorage of young scientists by seniors, programs of knowledge preservation, international mobility when possible. But more

  13. Building public confidence in the world's nuclear industry

    International Nuclear Information System (INIS)

    Duncan, C.D.

    1996-01-01

    Public confidence in the nuclear industry requires two things, which are trust and understanding. Trust is an emotional response based upon an instinctive reaction. Understanding, on the other hand, is an intellectual response based upon facts. To gain public confidence, both of these levels must be communicated and proactive strategies must be implemented to do this. To achieve this objective will require confidence and courage in communication programs. Each company operating in the nuclear sector must be proactive in building its individual reputation and must not retreat from controversy. Similarly, each industry body must continue the Herculean task of building understanding. The nuclear industry has powerful arguments. ICI, BP or Ford did not achieve their licences to operate by keeping their heads down, they achieved their current market positions by building a positive corporate reputation within their respective industrial contexts over many decades. In order to achieve a similar position for the nuclear industry and the companies, their examples must be followed. If it is continued to 'keep the heads down' in the trenches, public opinion will surely bury within it. (G.K.)

  14. Recent Movement, Issues and Some Counter plans in Nuclear Industry

    International Nuclear Information System (INIS)

    Lee, S. K.; Lee, J. K.; Cho, C. S.; Lee, C. C.; Park, C. O.

    2007-01-01

    There is no doubt 'Nuclear Energy' is the only source that can ensure the world's steady development in the foreseeable future. Nowadays is definitely what is called 'renaissance of nuclear.' As energy demand and economy increase, and global climate warms, the trend of nuclear dependency will be accelerated further. With 30 reactors being built around the world today, another 35 or more planned to come online during the next 10 years, and over two hundred further back in the pipeline, the global nuclear industry is clearly going forward strongly. Countries are seeking to replace old reactors as well as expand capacity, and an additional 25 countries are either considering or have already decided to make nuclear energy part of their power generation capacity. On the other hand, as current movement of world nuclear field, Korea has faced to one of the most important times since introducing nuclear power. Twenty nuclear power plants are run in Korea i.e. sixteen PWRs and four PHWRs now, and the capability of nuclear power production has been ranked world number six. In spite of this grand appearance, however, the influencing power on world nuclear society is not well matched to its status since it does not have a special hidden card which can appeal and impact on international community. In the era of nuclear renaissance, paradoxically, Korea is not in the situations of optimistic or pessimistic view. Now let's As energy demand and economy increase, and global climate warms, the trend of nuclear dependency will be accelerated further. With 30 reactors being built around the world today, another 35 or more planned to come online during the next 10 years, and over two hundred further back in the pipeline, the global nuclear industry is clearly going forward strongly. Countries are seeking to replace old reactors as well as expand capacity, and an additional 25 countries are either considering or have already decided to make nuclear energy part of their power generation

  15. Rewriting the history: a new future for the nuclear energy in United Kingdom?; Reescribiendo la historia: un nuevo futuro para la energia nuclear en Reino Unido?

    Energy Technology Data Exchange (ETDEWEB)

    Woodman, B. [University of Warwick, Coventry CV4 8UW (United Kingdom)

    2009-07-01

    From ends of the ninety, the new nuclear energy has been rejected three times like an option of viable energy generation for United Kingdom: once during the privatization of the electric supply industry and twice during the subsequent revisions to the energy politicians carried out in 2003. Nevertheless, three years more late, a new debate around the energy politics gave an unusual turning in the industry destination, characterized by the firm consideration in the political calendar about the new reactors development, as well as of governmental politicians guided to impel it. This recent interest arises of restlessness regarding the future security of the supply and to the necessity of reducing the carbon dioxide emissions of United Kingdom. With the purpose of obtaining the sufficient support of civil politicians and investors for the new construction project, the industry will have to devise convincing arguments to prove that it has already solved those problems that it suffered in the past and, also that deserves to receive a special treatment in the liberated market of the electricity. This document synthesizes the structure of the nuclear industry in United Kingdom, some recent historical data and the reasons for those that the new nuclear reactors were not very received in the past. It also indicates the measures that have taken in recent times to modify that perspective. Finally, it analyzes the possible future of the nuclear energy at long term in United Kingdom. (Author)

  16. Nuclear proliferation-resistance and safeguards for future nuclear fuel cycle

    International Nuclear Information System (INIS)

    Kuno, Y.; Inoue, N.; Senzaki, M.

    2009-01-01

    Corresponding to the world nuclear security concerns, future nuclear fuel cycle (NFC) should have high proliferation-resistance (PR) and physical protection (PP), while promotion of the peaceful use of the nuclear energy must not be inhibited. In order to accomplish nuclear non-proliferation from NFC, a few models of the well-PR systems should be developed so that international community can recognize them as worldwide norms. To find a good balance of 'safeguard-ability (so-called extrinsic measure or institutional barrier)' and 'impede-ability (intrinsic feature or technical barrier)' will come to be essential for NFC designers to optimize civilian nuclear technology with nuclear non-proliferation, although the advanced safeguards with high detectability can still play a dominant role for PR in the states complying with full institutional controls. Accomplishment of such goal in a good economic efficiency is a future key challenge

  17. Nuclear proliferation-resistance and safeguards for future nuclear fuel cycle

    Science.gov (United States)

    Kuno, Y.; Inoue, N.; Senzaki, M.

    2009-03-01

    Corresponding to the world nuclear security concerns, future nuclear fuel cycle (NFC) should have high proliferation-resistance (PR) and physical protection (PP), while promotion of the peaceful use of the nuclear energy must not be inhibited. In order to accomplish nuclear non-proliferation from NFC, a few models of the well-PR systems should be developed so that international community can recognize them as worldwide norms. To find a good balance of 'safeguard-ability (so-called extrinsic measure or institutional barrier)' and 'impede-ability (intrinsic feature or technical barrier)' will come to be essential for NFC designers to optimize civilian nuclear technology with nuclear non-proliferation, although the advanced safeguards with high detectability can still play a dominant role for PR in the states complying with full institutional controls. Accomplishment of such goal in a good economic efficiency is a future key challenge.

  18. Future nuclear energy policy based on the Broad Outline of Nuclear Energy Policy

    International Nuclear Information System (INIS)

    Saito, Shinzo

    2006-01-01

    The Broad Outline of Nuclear Energy Policy for about ten years was determined by the Cabinet meeting of Japan. Nuclear power plant safety and regulation, nuclear waste management, nuclear power production and nuclear power research and development were discussed. It determined that 3 nuclear power plants, which are building, should be built, and about 10 plants will be built to product 30 to 40 % of Japan electricity generation after 2030. FBR will be operated until 2050. The nuclear fuel cycle system will be used continuously. The nuclear power plant safety and nuclear waste management are so important for the nuclear industry that these subjects were discussed in detail. In order to understand and use the quantum beam technology, the advanced institutions and equipments and network among scientists, industry and people should be planed and practically used. (S.Y.)

  19. EBSD applications in the steel and nuclear industries

    International Nuclear Information System (INIS)

    Nave, M.D.

    2005-01-01

    EBSD has established itself as an invaluable tool for materials science problem-solving in the steel and nuclear industries. In the steel industry, it increases our understanding of the deformation and recrystallization processes that influence the formability of steel sheets. It is also used to improve welding procedures and identify phases that accelerate corrosion. In the nuclear industry, EBSD plays a central role in extending the life of fuel cladding materials by shedding new light on the mechanisms of hydride formation. It is also used in efforts to improve the processing of material used for the storage of nuclear waste. This presentation provides an overview of EBSD applications within these two industries, emphasizing the broad applicability and practical usefulness of the technique. (author)

  20. Present and future nuclear power generation as a reflection of individual countries' resources and objectives

    International Nuclear Information System (INIS)

    Borg, I.Y.

    1987-01-01

    The nuclear reactor industry has been in a state of decline for more than a decade in most of the world. The reasons are numerous and often unique to the energy situation of individual countries. Two commonly cited issues influence decisions relating to construction of reactors: costs and the need, or lack thereof, for additional generating capacity. Public concern has ''politicized'' the nuclear industry in many non-communist countries, causing a profound effect on the economics of the option. The nuclear installations and future plans are reviewed on a country-by-country basis for 36 countries in the light of the resources and objectives of each. Because oil and gas for power production throughout the world are being phased out as much as possible, coal-fired generation currently tends to be the chosen alternative to nuclear power production. Exceptions occur in many of the less developed countries that collectively have a very limited operating experience with nuclear reactors. The Chernobyl accident in the USSR alarmed the public; however, national strategies and plans to build reactors have not changed markedly in the interim. Assuming that the next decade of nuclear power generation is uneventful, additional electrical demand would cause the nuclear power industry to experience a rejuvenation in Europe as well as in the US. 80 refs., 3 figs., 22 tabs

  1. The nuclear power industry: financial considerations

    International Nuclear Information System (INIS)

    Leward, S.J.

    1984-01-01

    It is important not to allow the present liquidity crisis to escalate into economic and political dislocations that could result in a prolonged cessation of necessary capital investment. In assessing the future growth of nuclear power in other parts of the world, it may be instructive to consider the plight of the U.S. industry and the parallels that are apparent. In the United States, electric utility debt is growing too fast; a structural imbalance has developed even on the better corporate balance sheets; and cash flow or internal generation has diminished, particularly as the time needed to complete nuclear plants has extended, thereby precluding revenue production for as long as 10 to 15 years from the beginning of construction. Newcomers to the lending business may have little appetite to lend in unfavorable climates, and regulatory (political) bodies may irresponsibly allow unproductive use of resources and refuse to adopt difficult but essential economic policies to preserve the financial integrity of the borrower. These issues are relevant in the examination of any lender/borrower relationship, whether it be between sovereign nations, banker and borrower, or vendor and vendee. (author)

  2. Scenario-based roadmapping assessing nuclear technology development paths for future nuclear energy system scenarios

    International Nuclear Information System (INIS)

    Van Den Durpel, Luc; Roelofs, Ferry; Yacout, Abdellatif

    2009-01-01

    Nuclear energy may play a significant role in a future sustainable energy mix. The transition from today's nuclear energy system towards a future more sustainable nuclear energy system will be dictated by technology availability, energy market competitiveness and capability to achieve sustainability through the nuclear fuel cycle. Various scenarios have been investigated worldwide each with a diverse set of assumptions on the timing and characteristics of new nuclear energy systems. Scenario-based roadmapping combines the dynamic scenario-analysis of nuclear energy systems' futures with the technology roadmap information published and analysed in various technology assessment reports though integrated within the nuclear technology roadmap Nuclear-Roadmap.net. The advantages of this combination is to allow mutual improvement of scenario analysis and nuclear technology roadmapping providing a higher degree of confidence in the assessment of nuclear energy system futures. This paper provides a description of scenario-based roadmapping based on DANESS and Nuclear-Roadmap.net. (author)

  3. China's spent nuclear fuel management: Current practices and future strategies

    International Nuclear Information System (INIS)

    Zhou Yun

    2011-01-01

    Although China's nuclear power industry is relatively young and the management of its spent nuclear fuel is not yet a concern, China's commitment to nuclear energy and its rapid pace of development require detailed analyses of its future spent fuel management policies. The purpose of this study is to provide an overview of China's fuel cycle program and its reprocessing policy, and to suggest strategies for managing its future fuel cycle program. The study is broken into four sections. The first reviews China's current nuclear fuel cycle program and facilities. The second discusses China's current spent fuel management methods and the storage capability of China's 13 operational nuclear power plants. The third estimates China's total accumulated spent fuel, its required spent fuel storage from present day until 2035, when China expects its first commercialized fast neutron reactors to be operational, and its likely demand for uranium resources. The fourth examines several spent fuel management scenarios for the present period up until 2035; the financial cost and proliferation risk of each scenario is evaluated. The study concludes that China can and should maintain a reprocessing operation to meet its R and D activities before its fast reactor program is further developed. - Highlights: → This study provides an overview of China's fuel cycle program and its reprocessing policy.→ This study suggests strategies for managing its future fuel cycle program.→ China will experience no pressure to lessen the burden of spent fuel storage in the next 30 years.→ China should maintain sufficient reprocessing operations to meet its demands for R and D activities.→ China should actively invest on R and D activities of both fuel cycling and fast reactor programs.

  4. The World Nuclear Industry Status Report 2017

    International Nuclear Information System (INIS)

    Schneider, Mycle; Froggatt, Antony; Hazemann, Julie; Katsuta, Tadahiro; Ramana, M.V.; Rodriguez, Juan C.; Ruedinger, Andreas; Stienne, Agnes

    2017-09-01

    The World Nuclear Industry Status Report 2017 (WNISR2017) provides a comprehensive overview of nuclear power plant data, including information on operation, production and construction. The WNISR assesses the status of new-build programs in current nuclear countries as well as in potential newcomer countries. The WNISR2017 edition includes a new assessment from an equity analyst view of the financial crisis of the nuclear sector and some of its biggest industrial players. The Fukushima Status Report provides not only an update on onsite and offsite issues six years after the beginning of the catastrophe, but also the latest official and new independent cost evaluations of the disaster. Focus chapters provide in-depth analysis of France, Japan, South Korea, the United Kingdom and the United States. The Nuclear Power vs. Renewable Energy chapter provides global comparative data on investment, capacity, and generation from nuclear, wind and solar energy. Finally, Annex 1 presents a country-by-country overview of all other countries operating nuclear power plants

  5. Preparing for the future: the implications of the information revolution for the Canadian nuclear industry

    Energy Technology Data Exchange (ETDEWEB)

    Luke, M O [Atomic Energy of Canada Limited, Pinawa, MB (Canada)

    1997-12-31

    The information revolution provides an opportunity for the Canadian nuclear industry to reinvigorate the information environment that supports companies and employees in achieving business and personal goals. Five necessary steps are to intensify the information environment; develop a new human resources model that stresses access to, and sharing of, information, and which comes to grips with the need for better programs to retrain and retain employees and to accommodate the `mercenary` workforce; promote awareness of the information revolution; nurture individual initiatives; and develop an integrated approach called information engineering, which involves collaborative work between information technology, information management, and human resources. At the heart of all of these steps is the need for a new way of thinking about information and a determination to share information widely within our organisations and industry. Applying the recommended approaches within our industry will enable us to compete successfully in a global marketplace in which we are outnumbered and out gunned. (author) 28 refs., 2 figs.

  6. Preparing for the future: the implications of the information revolution for the Canadian nuclear industry

    International Nuclear Information System (INIS)

    Luke, M.O.

    1996-01-01

    The information revolution provides an opportunity for the Canadian nuclear industry to reinvigorate the information environment that supports companies and employees in achieving business and personal goals. Five necessary steps are to intensify the information environment; develop a new human resources model that stresses access to, and sharing of, information, and which comes to grips with the need for better programs to retrain and retain employees and to accommodate the 'mercenary' workforce; promote awareness of the information revolution; nurture individual initiatives; and develop an integrated approach called information engineering, which involves collaborative work between information technology, information management, and human resources. At the heart of all of these steps is the need for a new way of thinking about information and a determination to share information widely within our organisations and industry. Applying the recommended approaches within our industry will enable us to compete successfully in a global marketplace in which we are outnumbered and out gunned. (author)

  7. Transfer of industry-oriented nuclear technology at NUCOR

    International Nuclear Information System (INIS)

    De Jesus, A.S.M.

    1983-10-01

    The transfer of industry-oriented nuclear technology at the Nuclear Development Corporation of South Africa (Pty) Ltd (NUCOR) is centred in a few divisions only, as most of the NUCOR's program is internally oriented. The industry-oriented activities include radiation technology, production of radioisotopes and application of nuclear techniques in solving problems of industry. The study is concerned mainly with the last of these activities. The general problem of transferring innovative technology is reviewed and a systems approach is used to analyse the transfer process at NUCOR, in terms of the organisation itself and its environment. Organisational strengths and weaknesses are identified and used as a basis to determine opportunities and threats. Possible objectives are formulated and a strategy to meet them is suggested. 'Demand-pull' as opposed to 'technology-push' is advanced as the main triggering mechanism in the transfer of industry-oriented nuclear technology. The importance of marketing this technology, as well as its commercialization, are discussed

  8. Nuclear energy facing the future

    International Nuclear Information System (INIS)

    Laue, H.J.

    1982-01-01

    In conjunction with the 25th anniversary of the establishment of the IAEA, the contribution that nuclear energy can make to future world energy requirements is discussed and nuclear power generation statistics examined with especial reference to data on capacity and outages. (U.K.)

  9. Position paper on irradiated fuel and waste management. The Achille's heel of the nuclear industry?

    International Nuclear Information System (INIS)

    Bonin, Bernard

    2014-01-01

    The management and final disposal of irradiated fuel and nuclear waste is often presented by the media and perceived by the public as being an unsolved problem that restricts the future of nuclear energy. However, the nuclear industry focused on this problem very early on and has developed proven technical solutions. Nuclear energy will continue developing worldwide, in spite of the Fukushima accident. Even in those European countries that have decided to phase-out nuclear energy there is a legacy of nuclear waste that must be dealt with. The scientific and technical expertise needed for waste management already exists. Management decisions must be taken. Now is the time for political courage. (orig.)

  10. Current and future industrial energy service characterizations

    Energy Technology Data Exchange (ETDEWEB)

    Krawiec, F.; Thomas, T.; Jackson, F.; Limaye, D.R.; Isser, S.; Karnofsky, K.; Davis, T.D.

    1980-10-01

    Current and future energy demands, end uses, and cost used to characterize typical applications and resultant services in the industrial sector of the United States and 15 selected states are examined. A review and evaluation of existing industrial energy data bases was undertaken to assess their potential for supporting SERI research on: (1) market suitability analysis, (2) market development, (3) end-use matching, (3) industrial applications case studies, and (4) identification of cost and performance goals for solar systems and typical information requirements for industrial energy end use. In reviewing existing industrial energy data bases, the level of detail, disaggregation, and primary sources of information were examined. The focus was on fuels and electric energy used for heat and power purchased by the manufacturing subsector and listed by 2-, 3-, and 4-digit SIC, primary fuel, and end use. Projections of state level energy prices to 1990 are developed using the energy intensity approach. The effects of federal and state industrial energy conservation programs on future industrial sector demands were assessed. Future end-use energy requirements were developed for each 4-digit SIC industry and were grouped as follows: (1) hot water, (2) steam (212 to 300/sup 0/F, each 100/sup 0/F interval from 300 to 1000/sup 0/F, and greater than 1000/sup 0/F), and (3) hot air (100/sup 0/F intervals). Volume I details the activities performed in this effort.

  11. EPRI expert system activities for nuclear utility industry application

    International Nuclear Information System (INIS)

    Naser, J.A.

    1990-01-01

    This paper reports on expert systems which have reached a level of maturity where they offer considerable benefits for the nuclear utility industry. The ability of expert systems to enhance expertise makes them an important tool for the nuclear utility industry in the areas of engineering, operations and maintenance. Benefits of expert system applications include comprehensive and consistent reasoning, reduction of time required for activities, retention of human expertise and ability to utilize multiple experts knowledge for an activity. The Electric Power Research Institute (EPRI) has been performing four basic activities to help the nuclear industry take advantage of this expert system technology. The first is the development of expert system building tools which are tailored to nuclear utility industry applications. The second is the development of expert system applications. The third is work in developing a methodology for verification and validation of expert systems. The last is technology transfer activities to help the nuclear utility industry benefit from expert systems. The purpose of this paper is to describe the EPRI activities

  12. Nuclear proliferation-resistance and safeguards for future nuclear fuel cycle

    Energy Technology Data Exchange (ETDEWEB)

    Kuno, Y. [Japan Atomic Energy Agency (JAEA) Nuclear-Non-proliferation Science and Technology Centre (NPSTC), 2-4 Shirane Shirakata, Tokai-mura, Ibaraki, 319-1195 (Japan); University of Tokyo, Nuclear Engineering and Management, 7-3-1 Hongo, Bunkyo-ku, Tokyo 113-8656 (Japan)], E-mail: kuno.yusuke@jaea.go.jp; Inoue, N. [Japan Atomic Energy Agency (JAEA) Nuclear-Non-proliferation Science and Technology Centre (NPSTC), 2-4 Shirane Shirakata, Tokai-mura, Ibaraki, 319-1195 (Japan); University of Tokyo, Nuclear Engineering and Management, 7-3-1 Hongo, Bunkyo-ku, Tokyo 113-8656 (Japan); Senzaki, M. [Japan Atomic Energy Agency (JAEA) Nuclear-Non-proliferation Science and Technology Centre (NPSTC), 2-4 Shirane Shirakata, Tokai-mura, Ibaraki, 319-1195 (Japan)

    2009-03-15

    Corresponding to the world nuclear security concerns, future nuclear fuel cycle (NFC) should have high proliferation-resistance (PR) and physical protection (PP), while promotion of the peaceful use of the nuclear energy must not be inhibited. In order to accomplish nuclear non-proliferation from NFC, a few models of the well-PR systems should be developed so that international community can recognize them as worldwide norms. To find a good balance of 'safeguard-ability (so-called extrinsic measure or institutional barrier)' and 'impede-ability (intrinsic feature or technical barrier)' will come to be essential for NFC designers to optimize civilian nuclear technology with nuclear non-proliferation, although the advanced safeguards with high detectability can still play a dominant role for PR in the states complying with full institutional controls. Accomplishment of such goal in a good economic efficiency is a future key challenge.

  13. Nuclear regulation in the United States : Policy directions and future prospects

    International Nuclear Information System (INIS)

    Shirley, Ann Jackson

    1996-01-01

    Just before leaving the United States to come to Korea, I addressed the U. S. Nuclear Regulatory Commission (NRC) annual regulatory information conference, with which some of you might be familiar. The overall theme this year focused on enhancing and promoting a better understanding of future trends for improving nuclear safety. Specific sessions addressed an array of nuclear safety topics including: dry cask storage of spent fuel; performance-based changes in the inspection program; core performance and reactor fuel issues; the revised decommissioning rule; utility restructuring and NRC licensing activities; steam generators; implementation of the maintenance rule; an update on license renewal; the shutdown rule; and spent fuel pool issues. The number and range of topics addressed tells US that the nuclear field is by no means static. On the contrary. there are numerous areas in which regulatory policy is evolving in response to technological, governmental, and other developments. while not all nations with nuclear programs face the same issues at the same time, there is enough overlap from one nation to another that it may be useful to describe the challenges facing the NRC today. the nuclear regulatory policy is moving. The challenges that we are dealing with at the NRC today may well be those which other nations will be confronting shortly? of they are not doing so already. In addressing the question of my vision for the NRC, I am sometimes asked whether it is possible to have a vision for the agency, given that no new nuclear plants are being built in the U. S. and none are on the immediate horizon. The answer, of course, is that the original licensing of nuclear power plants is only a part of the job of the NRC? an important part, to be sure, be but because safety must be built into nuclear plants from the beginning -- but nevertheless just one part. The task of the nuclear regulator is to ensure not only that plants are designed and constructed safely, but

  14. Considerations about the licensing process of special nuclear industrial facilities

    Energy Technology Data Exchange (ETDEWEB)

    Talarico, M.A., E-mail: talaricomarco@hotmail.com [Marinha do Brasil, Rio de Janeiro, RJ (Brazil). Coordenacao do Porgrama de Submarino com Propulsao Nuclear; Melo, P.F. Frutuoso e [Coordenacao dos Programas de Pos-Graduacao em Engenharia (COPPE/UFRJ), Rio de Janeiro, RJ (Brazil). Programa de Engenharia Nuclear

    2015-07-01

    This paper brings a discussion about the challenges involved in the development of a new kind of nuclear facility in Brazil, a naval base for nuclear submarines, with attention to the licensing process and considerations about the risk-informed decision making application to the licensing process. Initially, a model of such a naval base, called in this work, special industrial facility, is proposed, with its systems and respective sets of basic requirements, in order to make it possible the accomplishment of the special industrial facility support function to the nuclear submarine. A discussion about current challenges to overcome in this project is presented: the challenges due to the new characteristics of this type of nuclear facility; existence of several interfaces between the special industrial facilities systems and nuclear submarine systems in design activities; lack of specific regulation in Brazil to allow the licensing process of special industrial facilities by the nuclear safety authority; and comments about the lack of information from reference nuclear facilities, as is the case with nuclear power reactors (for example, the German Grafenrheinfeld nuclear plant is the reference plant for the Brazilian Angra 2 nuclear plant). Finally, in view of these challenges, an analysis method of special industrial facility operational scenarios to assist the licensing process is proposed. Also, considerations about the application of risk-informed decision making to the special industrial facility activity and licensing process in Brazil are presented. (author)

  15. Considerations about the licensing process of special nuclear industrial facilities

    International Nuclear Information System (INIS)

    Talarico, M.A.; Melo, P.F. Frutuoso e

    2015-01-01

    This paper brings a discussion about the challenges involved in the development of a new kind of nuclear facility in Brazil, a naval base for nuclear submarines, with attention to the licensing process and considerations about the risk-informed decision making application to the licensing process. Initially, a model of such a naval base, called in this work, special industrial facility, is proposed, with its systems and respective sets of basic requirements, in order to make it possible the accomplishment of the special industrial facility support function to the nuclear submarine. A discussion about current challenges to overcome in this project is presented: the challenges due to the new characteristics of this type of nuclear facility; existence of several interfaces between the special industrial facilities systems and nuclear submarine systems in design activities; lack of specific regulation in Brazil to allow the licensing process of special industrial facilities by the nuclear safety authority; and comments about the lack of information from reference nuclear facilities, as is the case with nuclear power reactors (for example, the German Grafenrheinfeld nuclear plant is the reference plant for the Brazilian Angra 2 nuclear plant). Finally, in view of these challenges, an analysis method of special industrial facility operational scenarios to assist the licensing process is proposed. Also, considerations about the application of risk-informed decision making to the special industrial facility activity and licensing process in Brazil are presented. (author)

  16. Nuclear Energy - Hydrogen Production - Fuel Cell: A Road Towards Future China's Sustainable Energy Strategy

    International Nuclear Information System (INIS)

    Zhiwei Zhou

    2006-01-01

    Sustainable development of Chinese economy in 21. century will mainly rely on self-supply of clean energy with indigenous natural resources. The burden of current coal-dominant energy mix and the environmental stress due to energy consumptions has led nuclear power to be an indispensable choice for further expanding electricity generation capacity in China and for reducing greenhouse effect gases emission. The application of nuclear energy in producing substitutive fuels for road transportation vehicles will also be of importance in future China's sustainable energy strategy. This paper illustrates the current status of China's energy supply and the energy demand required for establishing a harmonic and prosperous society in China. In fact China's energy market faces following three major challenges, namely (1) gaps between energy supply and demand; (2) low efficiency in energy utilization, and (3) severe environmental pollution. This study emphasizes that China should implement sustainable energy development policy and pay great attention to the construction of energy saving recycle economy. Based on current forecast, the nuclear energy development in China will encounter a high-speed track. The demand for crude oil will reach 400-450 million tons in 2020 in which Chinese indigenous production will remain 180 million tons. The increase of the expected crude oil will be about 150 million tons on the basis of 117 million tons of imported oil in 2004 with the time span of 15 years. This demand increase of crude oil certainly will influence China's energy supply security and to find the substitution will be a big challenge to Chinese energy industry. This study illustrates an analysis of the market demands to future hydrogen economy of China. Based on current status of technology development of HTGR in China, this study describes a road of hydrogen production with nuclear energy. The possible technology choices in relation to a number of types of nuclear reactors are

  17. Corrosion and alteration of materials from the nuclear industry

    International Nuclear Information System (INIS)

    Beauvy, M.; Berthoud, G.; Defranceschi, M.; Ducros, G.; Feron, D.; Guerin, Y.; Latge, C.; Limoge, Y.; Madic, C.; Santarini, G.; Seiler, J.M.; Vernaz, E.; Richet, C.

    2010-01-01

    The control of the corrosion phenomenon is of prime importance for the nuclear industry. The efficiency and the safety of facilities can be affected by this phenomenon. The nuclear industry has to face corrosion for a large variety of materials submitted to various environments. Metallic corrosion operates in the hot and aqueous environment of water reactors which represent the most common reactor type in the world. Progresses made in the control of the corrosion of the different components of these reactors allow to improve their safety. Corrosion is present in the facilities of the back-end of the fuel cycle as well (corrosion in acid environment in fuel reprocessing plants, corrosion of waste containers in disposal and storage facilities, etc). The future nuclear systems will widen even more the range of materials to be studied and the situations in which they will be placed (corrosion by liquid metals or by helium impurities). Very often, corrosion looks like a patchwork of particular cases in its description. The encountered corrosion problems and their study are presented in this book according to chapters representing the main sectors of the nuclear industry and classified with respect to their phenomenology. This monograph illustrates the researches in progress and presents some results of particular importance obtained recently. Content: 1 - Introduction: context, stakes and goals; definition of corrosion; a complex science; corrosion in the nuclear industry; 2 - corrosion in water reactors - phenomenology, mechanisms, remedies: A - uniform corrosion: mechanisms, uniform corrosion of fuel cladding, in-situ measurement of generalized corrosion rate by electrochemical methods, uniform corrosion of nickel alloys, characterization of the passive layer and growth mechanisms, the PACTOLE code - an integrating tool, influence of water chemistry on corrosion and contamination, radiolysis impact on uniform corrosion; B - stress corrosion: stress corrosion cracking

  18. Nuclear industry chart no. 20 - Sweden

    International Nuclear Information System (INIS)

    Anon.

    1976-01-01

    A folding chart is presented of the Swedish nuclear industry, which shows the government bodies, companies, utilities and other groups who participate in the nuclear field. Their special interests and activities and affiliations with each other and with international organisations are indicated. (U.K.)

  19. Options contracts in the nuclear fuel industry

    International Nuclear Information System (INIS)

    Fuller, D.M.

    1995-01-01

    This article discusses options trading in the nuclear fuels industry. Although there now exists no formal options market in the nuclear industry, flexibilities, or embedded options, are actually quite common in the long-term supply contracts. The value of these flexibilities can be estimated by applying the methods used to evaluate options. The method used is the Black-Scholes Model, and it is applied to a number of examples

  20. Energy policy and nuclear power. Expectations of the power industry

    International Nuclear Information System (INIS)

    Harig, H.D.

    1995-01-01

    In the opinion of the power industry, using nuclear power in Germany is a responsible attitude, while opting out of nuclear power is not. Electricity utilities will build new nuclear power plants only if the structural economic and ecological advantages of nuclear power are preserved and can be exploited in Germany. The power industry will assume responsibility for new complex, capital-intensive nuclear plants only if a broad societal consensus about this policy can be reached in this country. The power industry expects that the present squandering of nuclear power resources in Germany will be stopped. The power industry is prepared to contribute to finding a speedy consensus in energy policy, which would leave open all decisions which must not be taken today, and which would not constrain the freedom of decision of coming generations. The electricity utilities remain committed proponents of nuclear power. However, what they sell to their customers is electricity, not nuclear power. (orig.) [de

  1. Where is the future of nuclear chemistry

    International Nuclear Information System (INIS)

    1980-01-01

    The future potentials of nuclear chemistry as a natural science with a strong orientation towards practical applications has been discussed at this meeting of 45 experts coming from research institutes and laboratories working in the fields of radiochemistry, nuclear chemistry, inorganic and applied chemistry, hot-atom chemistry, radiobiology, and nuclear biology, and from the two nuclear research centres at Juelich and Karlsruhe. The discussion centred around the four main aspects of future work, namely 1. basic research leading to an extension of the periodic table, nuclear reactions, the chemistry of superheavy elements, cosmochemistry; 2. radionuclide technology and activation analysis; 3. nuclear fuel cycle and reprocessing processes together with ultimate disposal methods; 4. radiochemistry in the life sciences, including nuclear chemistry and applications. (HK) [de

  2. The world's nuclear future - built on material success

    Science.gov (United States)

    Ion, Sue

    2010-07-01

    In our energy hungry world of the twenty-first century, the future of electricity generation must meet the twin challenges of security of supply and reduced carbon emissions. The expectations for nuclear power programmes to play a part in delivering success on both counts, grows ever higher. The nuclear industry is poised on a renaissance likely to dwarf the heady days of the 1960s and early 1970s. Global supply chain and project management challenges abound, now just as then. The science and engineering of materials will be key to the successful deployment and operation of a new generation of reactor systems and their associated fuel cycles. Understanding and predicting materials performance will be key to achieving life extension of existing assets and underpinning waste disposal options, as well as giving confidence to the designers, their financial backers and governments across the globe, that the next generation of reactors will deliver their full potential.

  3. The American nuclear power industry. A handbook

    International Nuclear Information System (INIS)

    Pearman, W.A.; Starr, P.

    1984-01-01

    This book presents an overview of the history and current organization of the American nuclear power industry. Part I focuses on development of the industry, including the number, capacity, and type of plants in commercial operation as well as those under construction. Part II examines the safety, environmental, antitrust, and licensing issues involved in the use of nuclear power. Part III presents case studies of selected plants, such as Three Mile Island and Seabrook, to illustrate some of the issues discussed. The book also contains a listing of the Nuclear Regulatory Commission libraries and a subject index

  4. Current status and prospects of the nuclear industry in the U.S

    International Nuclear Information System (INIS)

    Foulke, Larry

    2004-01-01

    On December 8, 1953, President Dwight D. Eisenhower captured the desires and hopes of the nations of the world in his 'Atoms for Peace' speech to the United Nations General Assembly. In the last 50 years, many nations have transformed Eisenhower's General Assembly. In the last 50 years, many nations have transformed Eisenhower's dream of the future the peaceful power of the atom into everyday reality. Civilian nuclear power reactors provide electricity without adding to global warming or air pollution. Radioisotopes have proven to be invaluable in medicine, agriculture, industry, and space exploration. It is not coincidental that the origin of the American Nuclear Society (ANS) is closely related to the 'Atoms for Peace' initiative. Two days after the Atoms for Peace address, asmall group of engineers and scientists from the infant atomic energy field met in New York City. They were to consider forming what they were calling an institute of Nuclear Science and Engineering. Such an organization--they would write in the invitation for the next meeting--would, in part, stimulate the declassification of nuclear information, in line with Eisenhower's plan. The next year, on October 11, 1954, after a heated discussion, the group settled on a name: the American Nuclear Society. The ANS treasures its association with the Korean Atomic Industrial Forum and the Korean Nuclear Societuy in mutual efforts to extend the benefits of nuclear science and technology

  5. The World Nuclear Industry Status Report 2009. With Particular Emphasis on Economic Issues

    International Nuclear Information System (INIS)

    Schneider, Mycle; Thomas, Steve; Froggatt, Antony; Koplow, Doug; Hazemann, Julie

    2009-08-01

    , 42 reactors (16,000 MW) would have to be planned, built and started up by 2015 - one every month and a half - and an additional 192 units (170,000 MW) over the following 10-year period - one every 19 days. Even if Finland and France each builds a reactor or two, China goes for an additional 20 plants and Japan, Korea or Eastern Europe add a few units, the overall worldwide trend will most likely be downwards over the next two decades. With extremely long lead times of 10 years and more, it will be practically impossible to maintain, let alone increase the number of operating nuclear power plants over the next 20 years. Countries with a grid size and quality that could apparently cope with a large nuclear plant in the short and medium term encounter an array of other significant barriers. Lack of a trained workforce and massive loss of competence are probably the most difficult challenges for proponents of nuclear expansion to overcome. Even France, the country with perhaps the strongest base of civilian nuclear competence, is threatened by a severe shortage of skilled workers. At least in the short term, severe manufacturing bottlenecks (only one facility in the world, Japan Steel Works, can cast large forgings for certain reactor pressure vessels) further hamper any practical nuclear revival. This report covers, in addition to the subjects in earlier editions, an economic analysis of past, present and likely future nuclear projects. While many industries experience declining costs as they move out their technological learning curve, the nuclear industry continues to face steadily increasing costs on existing construction and future cost estimates. There are numerous ways by which governments have organized or tolerated subsidies to nuclear power. They range from direct or guaranteed government loans to publicly funded research and development (R and D). Direct ownership of subsidized nuclear fuel chain facilities, government funded nuclear decommissioning and waste

  6. Future Direction of the Instrumentation and Control System for Security of Nuclear Facilities

    International Nuclear Information System (INIS)

    Kim, Woo Jin; Kim, Jae Kwang

    2014-01-01

    Instrumentation and control systems are pervasively used as a vital component in modern industries. Nuclear facilities, such as nuclear power plants (NPPs), originally use I and C systems for plant status monitoring, processes control, and many other purposes. After some events that raised security concerns, application areas of I and C systems have been expanded to physical protection of nuclear material and facilities. As nuclear policies over the world are strengthening security issues, the future direction of roles and technical requirements of security related I and C systems is described: An introduction of I and C systems, especially digitalized I and C systems, to security of nuclear facilities requires many careful considerations, such as system integration, verification and validation (V/V), etc. Institute of Nuclear Nonproliferation and Control (KINAC) established 'International Nuclear Nonproliferation and Security Academy, INSA' in 2014. One of the main achievements of INSA is test-bed implementation for technical criteria development of nuclear facilities' physical protection systems (PPSs) as well as for education and training of those systems. The test bed was modified and improved more suitably from the previous version to modern PPSs including state-of-the-art I and C technologies. KINAC is confident in the new test bed to become a fundamental technical basis of security related I and C systems in near future

  7. A comparative analysis of managing radioactive waste in the Canadian nuclear and non-nuclear industries

    Energy Technology Data Exchange (ETDEWEB)

    Batters, S.; Benovich, I.; Gerchikov, M. [AMEC NSS Ltd., Toronto, ON (Canada)

    2011-07-01

    Management of radioactive waste in nuclear industries in Canada is tightly regulated. The regulated nuclear industries include nuclear power generation, uranium mining and milling, nuclear medicine, radiation research and education and industrial users of nuclear material (e.g. radiography, thickness gauges, etc). In contrast, management of Naturally Occurring Radioactive Material (NORM) waste is not regulated by the Canadian Nuclear Safety Commission (CNSC), with the exception of transport above specified concentrations. Although these are radioactive materials that have always been present in various concentrations in the environment and in the tissues of every living animal, including humans, the hazards of similar quantities of NORM radionuclides are identical to those of the same or other radionuclides from regulated industries. The concentration of NORM in most natural substances is so low that the associated risk is generally regarded as negligible, however higher concentrations may arise as the result of industrial operations such as: oil and gas production, mineral extraction and processing (e.g. phosphate fertilizer production), metal recycling, thermal electric power generation, water treatment facilities. Health Canada has published the Canadian Guidelines for the Management of Naturally Occurring Radioactive Materials (NORM). This paper presents a comparative analysis of the requirements for management of radioactive waste in the regulated nuclear industries and of the guidelines for management of NORM waste. (author)

  8. A comparative analysis of managing radioactive waste in the Canadian nuclear and non-nuclear industries

    International Nuclear Information System (INIS)

    Batters, S.; Benovich, I.; Gerchikov, M.

    2011-01-01

    Management of radioactive waste in nuclear industries in Canada is tightly regulated. The regulated nuclear industries include nuclear power generation, uranium mining and milling, nuclear medicine, radiation research and education and industrial users of nuclear material (e.g. radiography, thickness gauges, etc). In contrast, management of Naturally Occurring Radioactive Material (NORM) waste is not regulated by the Canadian Nuclear Safety Commission (CNSC), with the exception of transport above specified concentrations. Although these are radioactive materials that have always been present in various concentrations in the environment and in the tissues of every living animal, including humans, the hazards of similar quantities of NORM radionuclides are identical to those of the same or other radionuclides from regulated industries. The concentration of NORM in most natural substances is so low that the associated risk is generally regarded as negligible, however higher concentrations may arise as the result of industrial operations such as: oil and gas production, mineral extraction and processing (e.g. phosphate fertilizer production), metal recycling, thermal electric power generation, water treatment facilities. Health Canada has published the Canadian Guidelines for the Management of Naturally Occurring Radioactive Materials (NORM). This paper presents a comparative analysis of the requirements for management of radioactive waste in the regulated nuclear industries and of the guidelines for management of NORM waste. (author)

  9. Organisational, technological and economic innovations: the nuclear industry reinvents itself to face 2030 challenges

    International Nuclear Information System (INIS)

    Faudon, Valerie; Jouette, Isabelle; Le Ngoc, Boris

    2016-06-01

    As the French nuclear industry is facing a major challenge (financial weakness, an electric power market in crisis, 15 years without building any reactor, delayed works), this report first outlines why innovation is necessary to guarantee a low carbon and competitive electricity, to comfort the leadership position of this sector in the world, and to respond to expectations of civil society. Then, it describes how the French nuclear industry is already implementing organisational, technological and social innovations, notably through the development of digital technologies. The third part identifies priorities of new public policies: to imagine a new business model for nuclear (a better visibility for investors, taking all induced costs in the power system into account in a diversified mix, reform of the carbon market, taking avoided atmospheric pollution into account), to rethink regulation in order to free innovation spirit, and to prepare the future by investing in research

  10. Prediction on Human Resource Supply/Demand in Nuclear Industry Using Markov Chains Model and Job Coefficient

    International Nuclear Information System (INIS)

    Kwon, Hyuk; Min, Byung Joo; Lee, Eui Jin; You, Byung Hoon

    2006-01-01

    According to the recent report by the OECD/NEA, there is a large imbalance between supply and demand of human resource in nuclear field. In the U.S., according to survey of Nuclear Engineering Department Heads Organization (NEDHO), 174 graduates in B.S or M.S degree were fed to nuclear industry in year 2004. Meanwhile, the total amount of demand in nuclear industry was about 642 engineers, which was approximately three times of the supply. In case of other developed western nations, the OECD/NEA report stated that the level of imbalance is similar to that of the U.S. However, nations having nuclear power development programs such as Korea, Japan and France seem to be in a different environment of supply and demand from that of the U.S. In this study, the difference of manpower status between the U.S and Korea has been investigated and the nuclear manpower required for the future in Korea is predicted. To investigate the factors making difference between the U.S. and NPP developing countries including Korea, a quantitative manpower planning model, Markov chains model, is applied. Since the Markov chains model has the strength of analyzing an inflow or push structure, the model fits the system governed by the inflow of manpower. A macroscopic status of manpower demand on nuclear industry is calculated up to 2015 using the Job coefficient (JC) and GDP, which are derived from the Survey for Roadmap of Electric Power Industry Manpower Planning. Furthermore, the total numbers of required manpower and supplied manpower up to 2030 were predicted by JC and Markov Chains model, respectively. Whereas the employee status of nuclear industries has been annually investigated by KAIF since 1995, the following data from the 10 th survey and nuclear energy yearbooks from 1998 to 2005 are applied; (a) the status of the manpower demand of industry, (b) number of students entering, graduating and getting job in nuclear engineering

  11. Prediction on Human Resource Supply/Demand in Nuclear Industry Using Markov Chains Model and Job Coefficient

    Energy Technology Data Exchange (ETDEWEB)

    Kwon, Hyuk; Min, Byung Joo; Lee, Eui Jin; You, Byung Hoon [Korea Atomic Energy Research Institute, Taejon (Korea, Republic of)

    2006-07-01

    According to the recent report by the OECD/NEA, there is a large imbalance between supply and demand of human resource in nuclear field. In the U.S., according to survey of Nuclear Engineering Department Heads Organization (NEDHO), 174 graduates in B.S or M.S degree were fed to nuclear industry in year 2004. Meanwhile, the total amount of demand in nuclear industry was about 642 engineers, which was approximately three times of the supply. In case of other developed western nations, the OECD/NEA report stated that the level of imbalance is similar to that of the U.S. However, nations having nuclear power development programs such as Korea, Japan and France seem to be in a different environment of supply and demand from that of the U.S. In this study, the difference of manpower status between the U.S and Korea has been investigated and the nuclear manpower required for the future in Korea is predicted. To investigate the factors making difference between the U.S. and NPP developing countries including Korea, a quantitative manpower planning model, Markov chains model, is applied. Since the Markov chains model has the strength of analyzing an inflow or push structure, the model fits the system governed by the inflow of manpower. A macroscopic status of manpower demand on nuclear industry is calculated up to 2015 using the Job coefficient (JC) and GDP, which are derived from the Survey for Roadmap of Electric Power Industry Manpower Planning. Furthermore, the total numbers of required manpower and supplied manpower up to 2030 were predicted by JC and Markov Chains model, respectively. Whereas the employee status of nuclear industries has been annually investigated by KAIF since 1995, the following data from the 10{sup th} survey and nuclear energy yearbooks from 1998 to 2005 are applied; (a) the status of the manpower demand of industry, (b) number of students entering, graduating and getting job in nuclear engineering.

  12. Nuclear-fuel-cycle education: Module 1. Nuclear fuel cycle overview

    International Nuclear Information System (INIS)

    Eckhoff, N.D.

    1981-07-01

    This educational module is an overview of the nuclear-fule-cycle. The overview covers nuclear energy resources, the present and future US nuclear industry, the industry view of nuclear power, the International Nuclear Fuel Cycle Evaluation program, the Union of Concerned Scientists view of the nuclear-fuel-cycle, an analysis of this viewpoint, resource requirements for a model light water reactor, and world nuclear power considerations

  13. Toward an acceptable nuclear future

    International Nuclear Information System (INIS)

    Weinberg, A.M.

    1977-11-01

    The nuclear option is in danger of being foreclosed. The trend toward antinuclearism may be reversed if concerns about low-level radiation insult can be shown ultimately to be without foundation; evidence for this speculation is presented. Nevertheless it is suggested that the nuclear enterprise itself must propose new initiatives to increase the acceptability of nuclear energy. A key element of an acceptable nuclear future is cluster siting of reactors. This siting plan might be achieved by confining new reactors essentially to existing sites

  14. Nuclear power and carbon dioxide; The fallacy of the nuclear industry's new propaganda

    Energy Technology Data Exchange (ETDEWEB)

    Mortimer, N. (Sheffield City Polytechnic (UK). School of Urban and Regional Studies)

    The increasingly beleaguered nuclear industry is now highlighting the threat of global warming as a justification for its continued expansion. The industry argues that it produces no carbon dioxide and that nuclear power is therefore a key element in any plan to reduce emissions of this greenhouse gas. However an analysis of the entire nuclear fuel cycle shows that nuclear power is responsible for much larger carbon dioxide emissions than several renewable energy options and efficiency measures. Furthermore, a major expansion of nuclear generating capacity would result in huge increases in CO{sub 2} emissions from the nuclear industry due to the need to mine and process progressively lower quality uranium ores. Nuclear power is an expensive, unsustainable, dangerous and ineffective option in any realistic strategy to combat global warming. (Author).

  15. Chemicals-Industry of the Future; Industrial Partnerships: Advancing Energy and Environmental Goals

    International Nuclear Information System (INIS)

    DOE Office of Industrial Technologies

    2001-01-01

    This tri-fold brochure describe the partnering activities of the Office of Industrial Technologies' (OIT) Industries of the Future (IOF) for Chemicals. Information on what works for the Chemicals industry, examples of successful partnerships, and benefits of partnering with OIT are included

  16. Glass-Industry of the Future; Industrial Partnerships: Advancing Energy and Environmental Goals

    International Nuclear Information System (INIS)

    DOE Office of Industrial Technologies

    2001-01-01

    This tri-fold brochure describe the partnering activities of the Office of Industrial Technologies' (OIT) Industries of the Future (IOF) for Glass. Information on what works for the Glass industry, examples of successful partnerships, and benefits of partnering with OIT are included

  17. Steel-Industry of the Future; Industrial Partnerships: Advancing Energy and Environmental Goals

    International Nuclear Information System (INIS)

    Jones, A.

    2001-01-01

    This tri-fold brochure describe the partnering activities of the Office of Industrial Technologies' (OIT) Industries of the Future (IOF) for Steel. Information on what works for the Steel industry, examples of successful partnerships, and benefits of partnering with OIT are included

  18. Aluminum-Industry of the Future; Industrial Partnerships: Advancing Energy and Environmental Goals

    International Nuclear Information System (INIS)

    Jones, A.

    2001-01-01

    This tri-fold brochure describe the partnering activities of the Office of Industrial Technologies' (OIT) Industries of the Future (IOF) for Aluminum. Information on what works for the Aluminum industry, examples of successful partnerships, and benefits of partnering with OIT are included

  19. Principles of education and training of industrial engineers for nuclear power plants

    International Nuclear Information System (INIS)

    Ackermann, G.; Meyer, K.; Brune, W.

    1977-01-01

    The report gives a short account of the development and experience of the education and advanced professional training system for engineers for the nuclear power stations of the GDR. The basic education for engineers is carried out at universities and colleges. Graduate engineers who have been working in industrial establishments outside nuclear power stations for a longer time get their basic education in nuclear engineering through postgraduate studies. Graduate engineers with a basic knowledge of nuclear engineering are trained at the Nuclear Power Plant School of the nuclear power station Rheinsberg and at the nuclear power stations of the GDR under practical conditions relating to their future job. In addition to basic theoretical knowledge, training at a nuclear power plant simulator plays an important role. This permits the training of the staff under regular operating conditions including transient processes and under unusual conditions. Further particular modes of advanced professional training such as courses in radiation protection and further postgraduate studies are described. This system of education has proved successful. It will be developed further to meet the growing demands. (author)

  20. Nuclear Inter Jura '91: nuclear law and nuclear energy for the future

    International Nuclear Information System (INIS)

    1992-01-01

    The 1991 congress of the International Nuclear Law Association took as its subject Nuclear Law and Nuclear Energy for the future. As well as individual reports, there were four sessions each covering the report of one or more working groups. The first session investigated licensing and decommissioning, while the second focussed on insurance and liability. The third session was devoted to nuclear supply and commerce at an international level. Finally radiological protection and nuclear waste management was discussed in the fourth session. (UK)

  1. A practicable signal processing algorithm for industrial nuclear instrument

    International Nuclear Information System (INIS)

    Tang Yaogeng; Gao Song; Yang Wujiao

    2006-01-01

    In order to reduce the statistical error and to improve dynamic performances of the industrial nuclear instrument, a practicable method of nuclear measurement signal processing is developed according to industrial nuclear measurement features. The algorithm designed is implemented with a single-chip microcomputer. The results of application in (radiation level gauge has proved the effectiveness of this method). (authors)

  2. The future of nuclear engineering

    International Nuclear Information System (INIS)

    Beeden, Jeffrey

    2003-01-01

    Today, nuclear power refers to the splitting of large uranium atoms into smaller atoms with a net release of energy. Tomorrow, nuclear power will refer to the combining of hydrogen into larger atoms with a net release of energy. Nuclear power's future is fusion. The Mechanical Engineers of tomorrow will need to be familiar with the process of creating and harnessing the energy from a fusion reaction. During the oil shortage in the 1970's, America scrambled to initiate alternative methods of producing power. Nuclear fusion was one of them. As time passes, the solution to the world's energy crisis presses the countries of the world to find alternative forms of energy; nuclear fusion may contain the answer. In the near future, the field of fusion will open up and a new wave of engineers will flood into this field. Mechanical engineers will lead the way with advances in materials, computational fluid dynamics, finite element analysis for thermal and structural systems, and heat transfer designs to optimize nuclear fusion reactors and power plants. All this effort is in anticipation of creating a sustained fusion reaction that can generate enough heat to transfer to steam in order to generate electric power to sustain the fusion reaction and introduce power to the grid. (author)

  3. A telerobot for the nuclear industry

    International Nuclear Information System (INIS)

    Anon.

    1990-01-01

    Industrial robots are not widely used in the nuclear industry. More use is made of telemanipulators, in which tasks are performed under total human control via a master-slave actuation system. AEA Technology have developed a Nuclear Engineered Advanced TEle Robot (NEATER), a telerobot which combines industrial robot technology with the skills of a human operator. It has been designed for use in radioactive decommissioning work and has a number of radiation tolerant properties. NEATER can be operated in a pure robotic mode using a standard computer controller and software. Or it can operate as a telerobot in a remote control mode via a television input. In this mode the operator controls the robot's movement by using a joystick or a simple six degrees of freedom input device. (UK)

  4. Forest-Industry of the Future; Industrial Partnerships: Advancing Energy and Environmental Goals

    International Nuclear Information System (INIS)

    DOE Office of Industrial Technologies

    2001-01-01

    This tri-fold brochure describe the partnering activities of the Office of Industrial Technologies' (OIT) Industries of the Future (IOF) for Forest Products. Information on what works for the Forest Products industry, examples of successful partnerships, and benefits of partnering with OIT are included

  5. Industrial prospects for the optimized use of U, Pu and Th for sustainable nuclear energy deployment

    International Nuclear Information System (INIS)

    Durpel, Luc Van Den; Guesdon, Bernard; Lecomte, Michel; Greneche, Dominique

    2010-01-01

    'Nuclear energy is part of a sustainable energy future' is a conclusion which is increasingly reached by a variety of energy scenario studies by world-renown institutions such as the IAEA, OECD/IEA and OECD/NEA, World Energy Council, and also reached by different national energy assessment reports. Nuclear does own various unique features that make this energy technology a prime candidate to fulfill a large part of our energy needs, beyond today's use of nuclear energy for our electricity needs. The previous 'wave' of nuclear energy deployment since the 1970's was, and still is, governed by the use of 235 U as main driver to spur this deployment of nuclear energy with gradually the introduction of the U/Pu -cycle in the thermal neutron spectrum reactor park (essentially LWR-technology). Technological progress and good economics of the U/Pu - cycle and especially the economic competitiveness of the LWR's have made this U/Pu-cycle essentially the standard worldwide. Fast spectrum reactors (FRs) haven't yet been developed at sufficient large and industrial scale to make full benefit of the U/Pu-cycle and there are no prospects that the world would massively turn to such FRs in the immediate future. On the verge of a second wave of nuclear deployment, increasing interest is and has to be given to synergies between various nuclear reactor technologies and especially the global nuclear fuel cycle as enabler towards sustainable nuclear energy deployment. Those synergies aim at a reduced reliance on natural uranium resources, continued good economic competitiveness of nuclear energy in local markets, safe and nonproliferant use of nuclear energy, and a reduction of ultimate wastes to be disposed of. This paper provides an overview of various avenues towards sustainable nuclear energy deployment and perspectives from the nuclear industry leader AREVA. (author)

  6. Future of nuclear licensing

    International Nuclear Information System (INIS)

    Denton, H.R.

    1984-01-01

    The following topics are outlined: Comparison of US and best foreign experience in nuclear power plant construction and operation; Status of licensing and construction; Observed attributes; Reduced construction time; Fewer reactor trips; Higher capacity factor; Diesel generator reliability; Steam generator tube leakage; and US regulatory initiatives: NRC efforts and industry efforts

  7. Recent developments and future trends in nuclear medicine instrumentation

    International Nuclear Information System (INIS)

    Zaidi, H.

    2006-01-01

    Molecular imaging using high-resolution single-photon emission computed tomography (SPECT) and positron emission tomography (PET) has advanced elegantly and has steadily gained importance in the clinical and research arenas. Continuous efforts to integrate recent research findings for the design of different geometries and various detector technologies of SPECT and PET cameras have become the goal of both the academic community and nuclear medicine industry. As PET has recently become of more interest for clinical practice, several different design trends seem to have developed. Systems are being designed for ''low cost'' clinical applications, very high-resolution research applications (including small-animal imaging), and just about everywhere in-between. The development of dual-modality imaging systems has revolutionized the practice of nuclear medicine. The major advantage being that SPECT/PET data are intrinsically aligned to anatomical information from the X-ray computed tomography (CT), without the use of external markers or internal landmarks. On the other hand, combining PET with magnetic resonance imaging (MRI) technology is scientifically more challenging owing to the strong magnetic fields. Nevertheless, significant progress has been made resulting in the design of a prototype small animal PET scanner coupled to three multichannel photomultipliers via optical fibers, so that the PET detector can be operated within a conventional MR system. Thus, many different design paths are being pursued - which ones are likely to be the main stream of future commercial systems? It will be interesting, indeed, to see which technologies become the most popular in the future. This paper briefly summarizes state-of-the art developments in nuclear medicine instrumentation. Future prospects will also be discussed. (orig.)

  8. Future nuclear energy utilization in view of the Swiss economy

    International Nuclear Information System (INIS)

    Kuendig, M.

    1990-01-01

    The tried and proven system of dividing duties between government and business should be continued. A double 'no', preserving the legal basis for the future use of nuclear energy, should therefore be the answer to the two bills aimed against it in Switzerland. Conservation, research and substitution efforts of private industry can be rewarded by providing the necessary framework. The creation of indirect incentives should further support these efforts, without federal intervention. For this reason and with the same resoluteness, the 'energy article' has to be rejected. (author)

  9. Partnering for Canada's nuclear future

    International Nuclear Information System (INIS)

    Koenderman, P.P.

    1997-01-01

    ''Partnering'' is an evolving relationship that could lead to a partnership or joint ownership. Babcock and Wilcox (BW) has used a variety of forms of contracting and partnering to develop global strategy for the supply of its products, both fossil and nuclear steam generating equipment. A strategic mix of consortia, strategic alliances and joint ventures has provided the impetus for BW to lead in worldwide market share in many categories, including the supply of nuclear replacement steam generators to the USA since 1992. The implication is that continuing cooperation with BW will benefit the Canadian nuclear industry. 6 refs., 12 figs

  10. The partnership with other nuclear industries is important for the French industry

    International Nuclear Information System (INIS)

    Le Ngoc, B.

    2016-01-01

    After the French bid for the construction of a nuclear power plant in the United Arab Emirates (AE) failed in 2011, Assystem, a French engineering company decided to develop in the Middle-East and now has become one of the most important partners of KEPCO, the company in charge of constructing the Barakah plant in AE. In Turkey, Assystem has bought a Turkish enterprise to back the Franco-Japanese SINOP project and to initiate a partnership with Rosatom building the Akkuyu plant. Today Assystem has become an important player in nuclear industry and has been able to bring back to French nuclear industry its experience of different practices and know-how in international nuclear markets. Assystem employs 12.200 staff worldwide and realized a 908 Meuros turnover in 2015. (A.C.)

  11. Perspectives on the future of nuclear power

    International Nuclear Information System (INIS)

    Chernoff, H.; Friedman, D.

    1990-01-01

    The US outlook on the future of nuclear power can be divided into three perspectives, here termed the macroeconomic perspective, the technological perspective, and the utility perspective (including independent power producers, or IPPs). A brief review of the macroeconomic and technological perspectives shows how differently the public, the media, politicians, and many nonutility advocates of nuclear power view the future of nuclear power (and, especially, the requirements for new orders) compared with the utilities and prospective IPPs

  12. Reviewing industrial safety in nuclear power plants

    International Nuclear Information System (INIS)

    1990-02-01

    This document contains guidance and reference materials for Operational Safety Review Team (OSART) experts, in addition to the OSART Guidelines (TECDOC-449), for use in the review of industrial safety activities at nuclear power plants. It sets out objectives for an excellent industrial safety programme, and suggests investigations which should be made in evaluating industrial safety programmes. The attributes of an excellent industrial safety programme are listed as examples for comparison. Practical hints for reviewing industrial safety are discussed, so that the necessary information can be obtained effectively through a review of documents and records, discussions with counterparts, and field observations. There are several annexes. These deal with major features of industrial safety programmes such as safety committees, reporting and investigation systems and first aid and medical facilities. They include some examples which are considered commendable. The document should be taken into account not only when reviewing management, organization and administration but also in the review of related areas, such as maintenance and operations, so that all aspects of industrial safety in an operating nuclear power plant are covered

  13. Competency assessments for nuclear industry personnel

    International Nuclear Information System (INIS)

    2004-04-01

    In 1996, the IAEA published Technical Reports Series No. 380, Nuclear Power Plant Personnel Training and its Evaluation: A Guidebook. This publication provides guidance for the development, implementation and evaluation of training programmes for all nuclear power plant personnel using the systematic approach to training (SAT) methodology. The SAT methodology has since been adopted and used for the development and implementation of training programmes for all types of nuclear facility and activities in the nuclear industry. The IAEA Technical Working Group on Training and Qualification of Nuclear Power Plant Personnel recommended that an additional publication be prepared to provide further guidance concerning competency assessments used for measuring the knowledge, skills and attitudes of personnel as the result of training. This publication has been prepared in response to that recommendation. A critical component of SAT (as part of the implementation phase) is the assessment of whether personnel have achieved the standards identified in the training objectives. The nuclear industry spends a significant amount of resources conducting competency assessments. Competency assessments are used for employee selection, trainee assessment, qualification, requalification and authorization (in some Member States the terminology may be 'certification' or 'licensing'), and job advancement and promotion. Ineffective testing methods and procedures, or inappropriate interpretation of test results, can have significant effects on both human performance and nuclear safety. Test development requires unique skills and, as with any skill, training and experience are needed to develop and improve them. Test item and examination development, use, interpretation of results and examination refinement, like all other aspects of SAT, should be part of an ongoing, systematic process. This publication is primarily intended for use by personnel responsible for developing and administering

  14. Environment and future of the nuclear energy in France

    International Nuclear Information System (INIS)

    Lebas, G.

    1999-01-01

    This work presents the problem of the renewal of the French electro-nuclear park with respect to the energetic, economical, environmental, political and ethical aspects. The theoretical framework chosen for this analysis is the one of sustainable development because of the uncertainty, irreversibility and equity aspects characterizing this choice. Thus, this work evaluates the capacity of the nuclear technology to ensure the simultaneous reproduction of the economical sphere, of the human sphere and of the biosphere. The past, present and future energy situation of France is analyzed in the first chapter together with the characteristics of the nuclear choice. In the second chapter, the analysis of the different possible energy options leads to the conclusion that the nuclear option remains the most suitable for a conciliation between economy and ecology, but that a diversification of the reactor technologies is necessary to take advantage of the efficiency of each technology with respect to its use. The nuclear choice has the advantage to limit the arbitration between the economical, ecological, political and human stakes. The realization of the diversification project supposes to leave opened all energy options and to be prepared to the replacement of the present day power plants by 2010-2020. The success of this policy will depend on the risk mastery and information efforts that public authorities and nuclear industry actors will carry on to avoid any social opposition with respect to nuclear energy. (J.S.)

  15. Activities of nuclear human resource development in nuclear industry

    International Nuclear Information System (INIS)

    Tsujikura, Yonezo

    2010-01-01

    Since 2007, the JAIF (Japan Atomic Industrial Forum) had established the nuclear energy human resource development council to make analysis of the issue on nuclear human resource development. The author mainly contributed to develop its road map as a chairman of working group. Questionnaire survey to relevant parties on issues of nuclear human resource development had been conducted and the council identified the six relevant issues and ten recommendations. Both aspects for career design and skill-up program are necessary to develop nuclear human resource at each developing step and four respective central coordinating hubs should be linked to each sector participating in human resource development. (T. Tanaka)

  16. Nuclear systems of the future - generation 4. Proposals of strategic orientations for the nuclear systems of the future; Les systemes nucleaires du futur - generation 4. Propositions d'orientations strategiques pour les systemes nucleaires du futur

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    2007-07-01

    Several points, specific to France, must be taken into consideration for the long term strategic choice of future nuclear systems, in particular: taking the best profit of the progress potentialities of water reactors, optimizing the opportunities offered by the renewal of power plants in operation, integrating the consequences and the implementation of a strategy of optimized management of radioactive wastes, and looking for improvements that would make nuclear energy an active contributor to sustainable development. The prospective researches carried out by the CEA and its industrial partners have led to propose a R and D strategy with 3 complementary goals: search for innovations for water reactors, development of fast neutron reactors with closed fuel cycle (sodium fast reactor (SFR), gas fast reactor (GFR)), and development of key-technologies for nuclear hydrogen production (very high temperature reactor (VHTR)). The R and D effort concerns also the subcritical systems devoted to transmutation, the new cycle processes for a global management of actinides, and some other nuclear systems like the molten salt reactors (MSR) and the supercritical water reactors (SCWR). This paper presents the R and D strategy for each technology with its priorities, steps, financial means and collaborations. (J.S.)

  17. The development of Chinese power industry and its nuclear power

    International Nuclear Information System (INIS)

    Zhou Dabin

    2002-01-01

    The achievements and disparity of Chinese power industry development is introduced. The position and function of nuclear power in Chinese power industry is described. Nuclear power will play a role in ensuring the reliable and safe supply of primary energy in a long-term and economic way. The development prospects of power source construction in Chinese power industry is presented. Challenge and opportunity in developing nuclear power in China are discussed

  18. Radiation protection actions at Swedish nuclear power plants 1994-2002 and some reflections about the near future

    International Nuclear Information System (INIS)

    Erixon, Stig; Godaas, Tommy; Hofvander, Peter; Lund, Ingmar; Malmqvist, Lars; Thimgren, Ingela; Oelander-Guer, Hanna

    2003-12-01

    This report provides a summary of radiation protection experiences over the years 1994-2002 in the Swedish nuclear power industry. Actions to reduce radiation levels in reactor systems, occupational exposure results and some reflections about the near future are presented

  19. Status of nuclear power industry in Ukraine

    International Nuclear Information System (INIS)

    Kadenko, I.M.; Vlasenko, M.I.

    2007-01-01

    There are five nuclear power plants and sites (NPPs) with 15 units in operation, 3 units under decommissioning and 1 drastically known as the 'Shelter' object in Ukraine. Ukraine has ambitions plans to develop nuclear industry based on own mineral, human financial resources as well as world wide international cooperation with nuclear countries

  20. Westinghouse support for Spanish nuclear industry

    International Nuclear Information System (INIS)

    Rebollo, R.

    1999-01-01

    One of the major commitments Westinghouse has with the nuclear industry is to provide to the utilities the support necessary to have their nuclear units operating at optimum levels of availability and safety. This article outlines the organization the Energy Systems Business Unit of Westinghouse has in place to fulfill this commitment and describes the evolution of the support Westinghouse is providing to the operation o f the Spanish Nuclear Power plants. (Author)

  1. The nuclear marketplace. Past, present, future

    International Nuclear Information System (INIS)

    Hatcher, S.R.

    1984-01-01

    Demand for uranium and heavy water depends on demand for power reactors, which in turn depends on demand for electricity. There is electric power generation over capacity at the moment, due to the fact that during the period of rapid economic growth in the 1960s and 1970s electricity production was growing about 50% faster than the GDP. The rapid escalation of energy costs between 1973 and 1980 fueled inflation and drove interest rates up, resulting in low growth rates and a recession. Even during this period electricity production capacity grew 50% faster than the GDP. The inevitable rationalization resulted in cancellations and near bankruptcy for electric utilities. The IAEA forecasts that more than the world's total nuclear generating capacity as of 1982 will be added in the 1990s, so the long-term prospect for nuclear power remains good. Until then, the nuclear industry will be experiencing a buyer's market, and the Canadian nuclear industry must select its markets carefully, in both the domestic and the international markets. (L.L.)

  2. Long-range goal setting in the nuclear utility industry

    International Nuclear Information System (INIS)

    Beard, P.M.

    1986-01-01

    The Institute of Nuclear Power Operation's (INPO's) programs support the industry's efforts to improve performance in nuclear plant safety and reliability. The success of these programs can best be measured by the progress of the industry. As utilities focused their attention on nuclear plant performance, the Institute's goal was to make sure its programs and activities provided the best possible support for these efforts. INPO continues to coordinate an industry-wide plant performance indicator program to assist member utilities in assessing station performance. Closely related to this effort is the nuclear industry's establishment of long-range plant performance goals. The US nuclear utility industry currently sends INPO quarterly data on 28 key performance indicators. INPO analyzes these data and provides periodic reports to its members and participants. Selected highlights of INPO's Performance Indicators for the US Nuclear Utility, dated June 1986, are discussed. Throughout 1985, INPO interacted with members, participants, and three external ad hoc review groups to refine the overall performance indicators and to develop background for each unit. By April 1986, each utility had developed long-term goals for each unit. By April 1986, each utility had developed long-term goals for most of the overall indicators. These goals represent a commitment to achievement of excellence when applied to the day-to-day conduct of plant operations, and provide a framework for action

  3. UK strategy for nuclear industry LLW - 16393

    International Nuclear Information System (INIS)

    Clark, Matthew; Fisher, Joanne

    2009-01-01

    In March 2007 the UK Government and devolved administrations (for Scotland, Wales and Northern Ireland, from here on referred to as 'Government') published their policy for the management of solid low level waste ('the Policy'). The Policy sets out a number of core principles for the management of low level waste (LLW) and charges the Nuclear Decommissioning Authority with developing a UK-wide strategy in the case of LLW from nuclear sites. The UK Nuclear Industry LLW Strategy has been developed within the framework of the principles set out in the policy. A key factor in the development of this strategy has been the strategic partnership the NDA shares with the Low Level Waste Repository near Drigg (LLWR), who now have a role in developing strategy as well as delivering an optimised waste management service at the LLWR. The strategy aims to support continued hazard reduction and decommissioning by ensuring uninterrupted capability and capacity for the management and disposal of LLW in the UK. The continued availability of a disposal route for LLW is considered vital by both the nuclear industry and non-nuclear industry low level waste producers. Given that the UK will generate significantly more low level waste (∼ 3.1 million m 3 ) than there is capacity at the LLWR (∼0.75 million m 3 ), developing alternative effective ways to manage LLW is critical. The waste management hierarchy is central to the strategy, which includes strategic goals at all levels of the hierarchy to improve its application across the industry. (authors)

  4. Education and training in nuclear energy: State of art, needs and future strategies

    International Nuclear Information System (INIS)

    Boeck, H.

    2010-01-01

    During the past three decades the interest of students in nuclear energy decreased due to the fact that especially in Europe and the US no new nuclear power plants were ordered and many industrialised countries even voted for a nuclear phase out program such as Germany, Italy, or Sweden. This trend was immediately reflected in the university enrolment and students turned to other areas such informatics, robotics, nano-technology etc. Nuclear education and training possibilities were drastically reduced as research reactors were shut down and university curricula were reduced. Today as a nuclear renaissance is obvious, this lack of students in the nuclear field during the past two decades overlaps with the fact that many senior staff members reach their age of retirement both in research centres, nuclear power plants and academia. Therefore the nuclear industry desperately needs qualified graduates in the nuclear field. To reverse this trend since several years many national and international organisations were established or added new programs to their existing structure to support these efforts such as the IAEA, OECD, ENEN- Association, the World Nuclear University, the German Kompetenzverbund, Asian ANENT, Belgium BNEN, British NTEC to name a few. In addition common academic curricula were established to facilitate mutual recognition and mobility of professors and students (Bologna Agreement). In parallel in many countries new university chairs in the nuclear field were filled with young professors. In addition a few new powerful research reactors were commissioned (FRM-2, OPAL) or are under construction (JHR) and planning (PALLAS). This paper describes the present international state of nuclear education, training and analyse the future needs of industry and research. (author)

  5. Nuclear heat for industrial purposes and district heating

    International Nuclear Information System (INIS)

    1974-01-01

    Studies on the various possibilities for the application of heat from nuclear reactors in the form of district heat or process steam for industrial purposes had been made long before the present energy crisis. Although these studies have indicated technical feasibility and economical justification of such utilization, the availability of relatively cheap oil and difficulties in locating a nuclear heat source inside industrial areas did not stimulate much further development. Since the increase of oil prices, the interest in nuclear heat application is reawakened, and a number of new potential areas have been identified. It now seems generally recognized that the heat from nuclear reactors should play an important role in primary energy supply, not only for electricity production but also as direct heat. At present three broad areas of nuclear heat application are identified: Direct heat utilization in industrial processing requiring a temperature above 800 deg. C; Process steam utilization in various industries, requiring a temperature mainly in the range of 200-300 deg. C; Low temperature and waste heat utilization from nuclear power plants for desalination of sea water and district heating. Such classification is mainly related to the type and characteristics of the heat source or nuclear reactor which could be used for a particular application. Modified high temperature reactor types (HTR) are the candidates for direct heat application, while the LWR reactors can satisfy most of the demands for process steam. Production of waste heat is a characteristic of all thermal power plants, and its utilization is a major challenge in the field of power production

  6. SOVT analysis of the nuclear industry in Mexico

    International Nuclear Information System (INIS)

    Fernandez R, E.; Hernandez B, M. C.

    2011-11-01

    In this work the analysis of strengths, opportunities, vulnerabilities and threats (SOVT) of the nuclear industry in Mexico is presented. This industry presents among its strengths that Mexico is a highly electrified country and has a good established normative mark of nuclear security. Although the Secretaria de Energia in Mexico, with base to the exposed in the Programa Sectorial de Energia 2007-2012, is analyzing the convenience of the generation starting from this source, considering the strong technological dependence of the exterior and the limited federal budget dedicated to this field. As a result of the analysis of the SOVT matrix, were found a great number of strengths that threats, although the vulnerabilities list is major to the strengths, the opportunities list is the bigger. Therefore, the nuclear industry can be a sustainable industry, taking the necessary decisions and taking advantage of the detected opportunities. (Author)

  7. The financing of nuclear industry

    International Nuclear Information System (INIS)

    Cazauran, B.

    1978-01-01

    Having first recalled the usual financing rules related to the economic activities, the author analyses the applying of those rules in the nuclear field, taking into account the specific characteristics of this industrial branch [fr

  8. A. The nuclear power industry in U.S.A

    International Nuclear Information System (INIS)

    1976-01-01

    The nuclear industry in the USA at present is on the defensive - opposition to nuclear power is growing, costs are escalating, new orders are outweighed by cancellations and spent fuel is accumulating as no commercial fuel reprocessing plants are operating. This latter is probably the greatest problem facing the industry and the lack of a decision on the use of mixed oxide fuel is a complicating factor. Other controversial subjects are the safety of power plants, the long term disposal of high level waste, the supply of uranium, enrichment facilities and safeguards. However nuclear power is already supplying 10% of the nations electricity and it may be that some of the current problems stem directly from the rapid growth of the industry. Thus, the current slowing of the growth rate could be advantageous. The industry has an enviable safety record and referenda held in a number of states on various nuclear issues have all suggested that in spite of the well-publicised problems, the public does not want nuclear power to be abandoned or too seriously constrained

  9. Promoting nuclear power, achieving sustainable development of nuclear industry in China

    International Nuclear Information System (INIS)

    Kang, R.

    2006-01-01

    The past 5 decades witnessed the rapid growth of China's nuclear industry. The sustained and rapid economic growth and continuous improvement of people's living standards have placed higher requirements for energy and power supplies. As a safe and clean energy source, nuclear energy has been gradually and widely accepted by the Chinese government and the public. The Chinese government has adopted the policy a ctively pushing forward the nuclear power development , set up the target to reach 40GWe of nuclear power installed capacity by 2020, accounting for about 4% of the total installed capacity in China. In this regard, this paper presents the China's nuclear program to illustrate how China is going to achieve the target. The paper is composed of 3 parts. The first part gives a review of the achievements in nuclear power in the last 20 years. The second part presents China's ''three approach'' strategy for furthering the nuclear power development: carrying out duplication projects at the existing plant sites; introducing GUI technology via international bidding; developing the brand C NP1000 , i.e. Chinese Nuclear Power lOOOMwe class, with China's own intellectual property. This part also explores the ways of securing the fuel supply for nuclear power development. The third part concludes with CNNC's ''3221'' strategy which aims at building a world class conglomerate, and expresses its sincere wish to work with the nuclear community to push the nuclear industry worldwide by strengthening international cooperation

  10. Organizational/institutional factors affecting performance in the nuclear power industry

    International Nuclear Information System (INIS)

    Benson, J.L.

    1992-01-01

    The dramatic macro experiences occurring at Three Mile Island and Chernobyl as well as the cumulative micro experiences represented by sky-rocketing costs and public concerns have demonstrated how the institutionally and organizationally related aspects of the nuclear power industry have dominated and shaped the technical ones. Further, given the relatively stable or evolutionary nature of the technology as it is currently applied, these institutional and organizational factors contain the roots of most of the complications/problems associated with the industry relative to achieving any or all of its future performance objectives (technical, economic, and safety). Some technology transfer was attempted by the author from the field of general systems/cybernetics, which was explicitly aimed at dealing with the organizational/institutional factors, i.e., the problems and issues were approached using principles and methodology substantially different from that typically seen from applications based on the more traditional paradigmic engineering/industrial management orientation

  11. Continuous improvement methods in the nuclear industry

    International Nuclear Information System (INIS)

    Heising, Carolyn D.

    1995-01-01

    The purpose of this paper is to investigate management methods for improved safety in the nuclear power industry. Process improvement management, methods of business process reengineering, total quality management, and continued process improvement (KAIZEN) are explored. The anticipated advantages of extensive use of improved process oriented management methods in the nuclear industry are increased effectiveness and efficiency in virtually all tasks of plant operation and maintenance. Important spin off include increased plant safety and economy. (author). 6 refs., 1 fig

  12. Report of nuclear utility industry responses to Kemeny Commission recommendations

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    1989-02-15

    The purpose of this paper is to provide a report of nuclear utility industry progress in responding to the recommendations of the President's Commission on the Accident at Three Mile Island (The Kemeny Commission). On April 11, 1979, in response to TMI, President Carter established a Commission to conduct '.... a comprehensive study and investigation of the recent accident involving the nuclear power facility on Three Mile Island in Pennsylvania'. The Commission was chaired by Dr. John G. Kemeny, then President of Dartmouth College. (A list of all members of The Kemeny Commission is provided in Attachment to the Appendix ). The report of the commission's findings and recommendations was transmitted to the President in October 1979. During this same period, the nuclear utility industry responded to TMI by creating the Institute of Nuclear Power Operations (INPO) with a mission to promote the highest levels of safety and reliability - to promote excellence - in the operation of nuclear electric generating plants. In addition, the Nuclear Safety Analysis Center (NSAC) was established at the Electric Power Research Institute (EPRI to evaluate the accident and assist in determining the best industry response. In a White House paper (and press release) of December 7 1979, the President announced that he agreed fully with the spirit and intent of al the Kemeny Commission recommendations and requested that the industry and The Nuclear Regulatory Commission (NRC) comply with the recommendations. The President also recognized the industry initiative in establishing INPO and called for several actions involving the Institute; the President directed the Department of Energy and other government agencies to provide assistance to INPO and the industry. An overall status of the nuclear utility industry responses to Kemeny Commission recommendations in the key areas directly related to nuclear plant operations is provided below. A more detailed status of industry responses to the

  13. Report of nuclear utility industry responses to Kemeny Commission recommendations

    International Nuclear Information System (INIS)

    1989-02-01

    The purpose of this paper is to provide a report of nuclear utility industry progress in responding to the recommendations of the President's Commission on the Accident at Three Mile Island (The Kemeny Commission). On April 11, 1979, in response to TMI, President Carter established a Commission to conduct '.... a comprehensive study and investigation of the recent accident involving the nuclear power facility on Three Mile Island in Pennsylvania'. The Commission was chaired by Dr. John G. Kemeny, then President of Dartmouth College. (A list of all members of The Kemeny Commission is provided in Attachment to the Appendix ). The report of the commission's findings and recommendations was transmitted to the President in October 1979. During this same period, the nuclear utility industry responded to TMI by creating the Institute of Nuclear Power Operations (INPO) with a mission to promote the highest levels of safety and reliability - to promote excellence - in the operation of nuclear electric generating plants. In addition, the Nuclear Safety Analysis Center (NSAC) was established at the Electric Power Research Institute (EPRI to evaluate the accident and assist in determining the best industry response. In a White House paper (and press release) of December 7 1979, the President announced that he agreed fully with the spirit and intent of al the Kemeny Commission recommendations and requested that the industry and The Nuclear Regulatory Commission (NRC) comply with the recommendations. The President also recognized the industry initiative in establishing INPO and called for several actions involving the Institute; the President directed the Department of Energy and other government agencies to provide assistance to INPO and the industry. An overall status of the nuclear utility industry responses to Kemeny Commission recommendations in the key areas directly related to nuclear plant operations is provided below. A more detailed status of industry responses to the

  14. Actual state of the nuclear industry in Japan and trends of nuclear development in the world

    International Nuclear Information System (INIS)

    Anon.

    1999-01-01

    Nuclear industry in Japan established a fixed foundation as a large complex system industry by elapsing about forty years since beginning of its development at top of 1930s. For Japan with little energy resources, nuclear power generation is one of essential choices because not only of keeping energy security but also of response to global warming problem such as global warming protection. Then, in order to intend to promote sound development of the nuclear industry in Japan, further upgrading of technology aimed at maintenance and improvement of safety and formation of understanding and agreement of the peoples must be established. Here was introduced a report on actual state of the nuclear industry in Japan in 1997 fiscal year prepared on February, 1999 by the Japan Atomic Industrial Forum. (G.K.)

  15. Nuclear power a viable energy choice for the future

    International Nuclear Information System (INIS)

    Omoto, Akira

    2005-01-01

    Global energy use will most likely increase to more than double by 2050, which is e.g. the medium value of the projection in the Intergovernmentals Panel on Climate Change (IPCC) Special Report on Emissions Scenarios (SRES). How to reconcile the projections with the current nuclear status? In its first fifty years, nuclear power has grown from 5 MWe of power production to an installed worldwide capacity of 360 GWe in 30 countries. Nuclear power provides about 16% of the total electricity in the world and is contributing to the reduction of the emission of greenhouse gases from the power sector. The SRES scenarios identify a gap between the current electricity generation capacity and the capacity requirements in 2050 of 360 GWe and 1 500 GWe. Three key factors will determine the future contribution of nuclear power: - improved economics, - national energy choice and supporting infrastructure as well as institutional arrangement, and - the degree to which advances are implemented in evolutionary and innovative reactor and fuel cycle technologies, to address safety, waste and proliferation concerns, as well as economic competitiveness. The economics of nuclear power are one main topic in industrial countries. A Japanese case study on energy security credit shows that nuclear power will eventually be a winner in the long term perspective due to amortisation and stable fuel prices. Nuclear power is also a part of nuclear technologies to address daunting challenges in the developing countries - hunger, disease, poverty, and shortage of drinking water and electricity. (orig.)

  16. Situation of nuclear industry in Japan

    International Nuclear Information System (INIS)

    2004-03-01

    This document presents the situation of nuclear industry in Japan: cooperation with France in the domain of the fuel cycle (in particular the back-end) and of for the industrial R and D about fast reactors and nuclear safety; present day situation characterized by a series of incidents in the domain of nuclear safety and by an administrative reorganization of the research and safety organizations; power of local representatives, results of April 2003 elections, liberalization of the electric power sector, impact of the TEPCO affair (falsification of safety reports) on the nuclear credibility, re-start up of the Monju reactor delayed by judicial procedures, stopping of the program of MOX fuel loading in Tepco's reactors, discovery of weld defects in the newly built Rokkasho-mura reprocessing plant, an ambitious program of reactors construction, the opportunity of Russian weapons dismantling for the re-launching of sodium-cooled fast reactors; the competition between France and Japan for the setting up of ITER reactor and its impact of the French/Japanese partnership. (J.S.)

  17. Assuring nuclear energy's future through international co-operation

    International Nuclear Information System (INIS)

    Upson, P.

    1999-01-01

    It is invited lecture as the introduction to the sixt international meeting entitled Nuclear Energy in Central Europe. Good commercial operation, public information and education are needed to win the confidence of the public, and to attract young people to take over the industry's founding generation. Stimulating international co-operation and transfer of best practices can assure this happens across the whole of the Europian nuclear industry

  18. Limitation of third party nuclear liability. Causes, implications and future possibilities

    International Nuclear Information System (INIS)

    Radetzki, M.

    1999-01-01

    Third party liability of the nuclear power generation industry is discussed. It has several purposes. One is to clarify the distinctive features of nuclear liability as compared with traditional liability in tort. Particular interest is devoted to one such feature, namely the express liability limitation from which the nuclear power generation industry benefits. The causes and implications of this feature are discussed. One important implication of the current order is that the top risk of the nuclear power generation industry is explicitly or implicitly transferred to governments. This risk transfer can be regarded as a subsidy to the nuclear power generation industry. Subsidizations counteract efficiency. Therefore, the possibilities of neutralizing or abolishing the subsidy are explored. (author)

  19. An Overview of the Regulation of Low Dose Radiation in the Nuclear and Non-nuclear Industries

    International Nuclear Information System (INIS)

    Menon, Shankar; Valencia, Luis; Teunckens, Lucien

    2003-01-01

    Now that increasing numbers of nuclear power stations are reaching the end of their commercially useful lives, the management of the large quantities of very low level radioactive material that arises during their decommissioning has become a major subject of discussion, with very significant economic implications. Much of this material can, in an environmentally advantageous manner, be recycled for reuse without radiological restrictions. Much larger quantities--2-3 orders of magnitude larger--of material, radiologically similar to the candidate material for recycling from the nuclear industry, arise in non-nuclear industries like coal, fertilizer, oil and gas, mining, etc. In such industries, naturally occurring radioactivity is artificially concentrated in products, by-products or waste to form TENORM (Technologically Enhanced Naturally Occurring Radioactive Material). It is only in the last decade that the international community has become aware of the prevalence of TENORM, specially the activity levels and quantities arising in so many non-nuclear industries. The first reaction of international organizations seems to have been to propose different standards for the nuclear and non-nuclear industries, with very stringent release criteria for radioactive material from the regulated nuclear industry and up to thirty to a hundred times more liberal criteria for the release/exemption of TENORM from the as yet unregulated non-nuclear industries. There are significant strategic issues that need to be discussed and resolved. Some examples of these are: - Disposal aspects of long-lived nuclides, - The use of radioactive residues in building materials, - Commercial aspects of differing and discriminating criteria in competing power industries in a world of deregulated electric power production. Of even greater importance is the need for the discussion of certain basic issues, such as - The quantitative risk levels of exposure to ionizing radiation, - The need for in

  20. Technology transfer by industry for the construction of nuclear power plants

    International Nuclear Information System (INIS)

    Frewer, H.; Altvater, W.

    1977-01-01

    The construction of nuclear power plants call for a wide sphere of industrial activities, nuclear as well as conventional. For a specific country the ways and methods of developing an industrial nuclear power program and reaching the target of independence, will widely differ, depending on the size of the country, the economic situation, the already existing industrial manufacturing and engineering capacities, the time schedule of the program and the type of contracting. The experience in effective technology transfer for the strengthening and setting up the national industry, and the engineering capacities, needed for the construction of nuclear power plants up to the largest size existing today are considered. The German nuclear power industry gained this experience in connection with the turn-key supply of the first units in various countries. The prerequisites and national nuclear power programs were different. Based on a successful technological development, including standardization, the German nuclear power industry could meet the demand and different approaches in these countries. The main features and practices followed for the transfer of technology is described for three different cases, namely Argentina, Brazil and Iran. (author)

  1. Nuclear energy in France. Which usefulness? Which future?

    International Nuclear Information System (INIS)

    Sorin, Francis

    2014-01-01

    After having recalled the main objectives of the French policy on energy transition (energy efficiency, energy saving, development of renewable energies) and evoked the controversy about the decrease of the nuclear share in the French energy mix, the author recalls the context of development of nuclear energy in France which aimed to ensure an independent electricity supply. Then, the author outlines the benefits of this independence in terms of economy, industrial development and protection of the environment. He discusses the perspectives and challenges of nuclear energy and industry in France with respect to energy transition, to the possibility of life extension for the French nuclear fleet, to the improvement of safety after the complementary safety assessments performed after Fukushima, to the EPR design and to the development of new generations (III and IV) of nuclear reactors, and to new applications of nuclear energy (desalination, transports, district heating). In a last part, the author discusses the perspective of development of nuclear energy in the world

  2. Diffusion of information about the nuclear industry

    International Nuclear Information System (INIS)

    Galvan, C.G.

    1983-01-01

    The diffusion of nuclear technology means a development of a large network of activities (e.g. capital goods, construction, metallurgical and chemical industries) than a path for solving energy problems. Its ties with the arms race cause specific non-proliferation problems. A close state-capital articulation emerges, which strengthens the subsumption of labour and introduces new processes of social control. Already fulfilled investments give impulse to this tendency. The Tlatelolco regime, banishing nuclear weapons from Latin America, seems to establish a pre-condition for a regional solution to the problems thus arising. But, besides the imperfect adhesion to the Treaty, technical and political reasons obstruct a regional integration of the nuclear fuel cycle. Among other things, a lack of regional integration in other industries makes nuclear expansion more dependent on extra-regional technological ties. (Author) [pt

  3. Nuclear power: which industrial approach will preserve a French asset?

    International Nuclear Information System (INIS)

    Machenaud, H.

    2012-01-01

    France's strategic decision in favor of nuclear energy in the 1970's has given rise to an organization of this industry with clearly defined roles and responsibilities for all parties. This has led to the mastering of industrial production of the whole chain from mining to fuel reprocessing and to waste disposal. Nuclear safety was at any stage of the chain the priority number one. The French nuclear industry is present on the international scene and thus maintain its know-how and capacities despite the ups and downs of the nuclear market. Today 240.000 people work in France in the nuclear sector. France has followed a consistent energy policy during the last 50 years and benefits from an important and homogeneous fleet of reactors which has generated a rich feedback experience on reactor operation. The tasks that face the French nuclear industry are: -) to comply with the requirements of the Complementary Safety Assessments that have been performed on all French nuclear facilities, -) to maintain and upgrade the power plants (most of them are facing their 3. decennial overhaul), -) to prepare the nuclear systems of tomorrow, and -) to export the French know-how

  4. Present and future of Korean nuclear power

    International Nuclear Information System (INIS)

    Min, K-H

    2014-01-01

    'Full text:' The Korean nuclear power industry has devoted itself to technological development and self-reliance over the last 30 years since Kori unit 1, the first nuclear power plant commenced its commercial operation in 1978. As a result of such efforts and accumulated experiences, the Korean nuclear power industry has developed the OPR 1000 and APR 1400 units and is almost completing the development of the APR+ as a 1,500MW class reactor with its own technologies of design and manufacturing. Also, the Korean nuclear power industry has been able to build a strong supply chain from engineering, manufacturing, construction, and fuel supply, to operation and maintenance. At present, Korea is operating 23 commercial power reactors with a total installed capacity of 20,716 MW, accounting for 25 percent of the installed capacity and one third of the nation's total electricity generation. Also, the share of nuclear power generation capacity will be 29 percent by 2035 in the Long Term Energy Development Plan and 43 GW of nuclear energy capacity will be needed. Thanks to nuclear power generation as an essential driving force, Korea has been able to supply cheap and stable electricity. However, amid the growing public concerns about nuclear safety after the Fukushima accident, the Korean government and related organizations are exerting its utmost effort in all areas, for example, enhancing nuclear safety and safety culture, carrying out management innovation, and communicating with the public in order to enhance transparency. Also, the Korean government launched the Public Engagement Commission on spent nuclear fuel (SNF) management in 2013, which is tasked to initiate public consultation & discussion and submit recommendation to government after in-depth review and analysis on SNF management options by the end of 2014. Nuclear power has become very essential part of national economy in Korea because Korea has virtually no indigenous energy resources and

  5. Present and future of Korean nuclear power

    Energy Technology Data Exchange (ETDEWEB)

    Min, K-H [Korea Atomic Industrial Forum, Inc., Seoul (Korea, Republic of)

    2014-07-01

    'Full text:' The Korean nuclear power industry has devoted itself to technological development and self-reliance over the last 30 years since Kori unit 1, the first nuclear power plant commenced its commercial operation in 1978. As a result of such efforts and accumulated experiences, the Korean nuclear power industry has developed the OPR 1000 and APR 1400 units and is almost completing the development of the APR+ as a 1,500MW class reactor with its own technologies of design and manufacturing. Also, the Korean nuclear power industry has been able to build a strong supply chain from engineering, manufacturing, construction, and fuel supply, to operation and maintenance. At present, Korea is operating 23 commercial power reactors with a total installed capacity of 20,716 MW, accounting for 25 percent of the installed capacity and one third of the nation's total electricity generation. Also, the share of nuclear power generation capacity will be 29 percent by 2035 in the Long Term Energy Development Plan and 43 GW of nuclear energy capacity will be needed. Thanks to nuclear power generation as an essential driving force, Korea has been able to supply cheap and stable electricity. However, amid the growing public concerns about nuclear safety after the Fukushima accident, the Korean government and related organizations are exerting its utmost effort in all areas, for example, enhancing nuclear safety and safety culture, carrying out management innovation, and communicating with the public in order to enhance transparency. Also, the Korean government launched the Public Engagement Commission on spent nuclear fuel (SNF) management in 2013, which is tasked to initiate public consultation & discussion and submit recommendation to government after in-depth review and analysis on SNF management options by the end of 2014. Nuclear power has become very essential part of national economy in Korea because Korea has virtually no indigenous energy resources and

  6. A revolution is underway, nuclear industry will be transformed

    International Nuclear Information System (INIS)

    Le Ngo, B.

    2016-01-01

    Nuclear industry is the third industrial sector in France but it has to cope with a difficult financial situation and internal difficulties. We have to turn these difficulties into an opportunity to re-invent nuclear industry itself. Digit tools concerning 'product life management', big-data or 3-dimension simulations must be fully used to reduce construction or maintenance costs. Tomorrow's nuclear industry will use the additive manufacturing that consists in building 3-dimension objects by adding layer-upon-layer of material and that will reduce by a factor 5 the quantity of materials used in production. A new work organizing including a better cooperation between all the links of a chain of suppliers in order to detect and develop new ideas or find new solutions. (A.C.)

  7. Renewable and nuclear power: A common future?

    International Nuclear Information System (INIS)

    Verbruggen, Aviel

    2008-01-01

    Nuclear power and renewable energy are the main options to bring down the carbon intensity of commercial energy supply. What technology is unlimited backstop supply depends on its performance on the sustainability criteria: democratic decided, globally accessible, environmental benign, low risk, affordable. Renewable power meets all criteria, with affordability under debate. Maximizing energy efficiency as prerequisite, the affordable sustainable option in fact is the twin efficiency/renewable power. Nuclear power falls short on the sustainability criteria and its public acceptance is low. Nuclear proponents now propose nuclear and renewable energy as a suitable couple to address the climate change challenge. The two antagonists however are mutually exclusive on the five major directions of future power systems. First, nuclear power has been architect of the expansive 'business-as-usual' energy economy since the 1950s. Second, add-on by fossil-fuelled power plants is bulky and expansive for nuclear power, but is distributed, flexible and contracting over time for renewable power. Third, power grids for spreading bulky nuclear outputs are other than the interconnection between millions of distributed power sources requires. Fourth, risks and externalities and the proper technology itself of nuclear power limit its development perspectives, while efficiency/renewable power are still in their infancy. Fifth, their stalemate for R and D resources and for production capacities will intensify. Nuclear power and renewable power have no common future in safeguarding 'Our Common Future'

  8. Applications of nuclear methods in the automotive industry

    International Nuclear Information System (INIS)

    Schneider, E.W.; Yusuf, S.O.

    1996-01-01

    Over the years nuclear methods have proved to be a valuable asset to industry in general and to the automotive industry in particular. This paper summarizes some of the most important recent contributions of nuclear technology to the development of vehicles having high quality and long-term durability. Radiotracer methods are used to measure engine oil consumption and the wear rates of inaccessible components. Radiographic and tomographic methods are used to image fluids and structures in engines and accessory components. Tracers are used to understand combustion chemistry and quantify fluid flow. Gauging methods are used for inspection and process control. Nuclear analytical methods are used routinely for materials characterization and problem solving. Although nuclear methods are usually considered as the means of last resort, they can often be applied more easily and quickly than conventional methods when those in industrial engineering and R and D are aware of their unique capabilities. (author). 51 refs., 5 figs

  9. Can nuclear power be enough for future technology?

    International Nuclear Information System (INIS)

    Serizawa, Akimi

    2017-01-01

    This paper focused on the report 'Can nuclear power be future technology?' published on September 28, 2008 by the Leading R and D Committee of Japan Society for the Promotion of Science. It took up part of the discussions at the general discussion session, and those of two working groups mainly by young committee members, and summarized and compiled them. Regarding 'maturity of nuclear technology as future technology,' this paper summarized and discussed from the technical viewpoint the current situation and problems of nuclear power in consideration of the future. Major topics include (1) nuclear safety and disaster prevention, (2) decommissioning of rectors (normal reactors, and accident reactors), (3) back end, (4) effects of low-level radiation, (5) technology trends, (6) economic efficiency, and (7) human resource development. Regarding 'social acceptability of nuclear energy,' the following were discussed: (1) basic human rights such as 'moral rights' and nuclear technologies, (2) risk communication and its problems, and (3) measures to improve the reliability of stakeholders involved in nuclear power. Regarding 'nuclear accident responding team,' this paper covered the nuclear accident responding unit founded in France after the nuclear accident in Japan, and nuclear accident responding unit founded in Japan. (A.O.)

  10. Model of a Nuclear Security Naval Agency for radiation control of the Industrial Complex of of Submarine Construction and Maintenance Ship with Nuclear Propulsion

    International Nuclear Information System (INIS)

    Lins Junior, Amilton de Sousa

    2017-01-01

    Due to the construction, by Brazilian Navy, of a Submarine Construction and Maintenance Ship with Nuclear Propulsion, where, among other activities, the commissioning and exchange of the fuel elements of the reactor in the future Nuclear Submarine, and of a Naval Base where the Nuclear Submarine and the Conventional Submarines, it is necessary the establishment of a Nuclear Security Naval Agency to monitor activities involving ionizing radiation sources and nuclear materials aimed at the radiological protection of exposed occupationally individuals (IOE), the general public and the environment. It should be noted that nuclear and radioactive material will be present only in a part of the yard called Radiological Complex. Therefore, the development of a structure for the control of the Radiological Complex is fundamental, considering that the future licensing process will be unprecedented in Brazil and will face several difficulties. This work presents a model of a structure for the radiological control of the industrial complex for the construction and maintenance of the submarine with nuclear propulsion, as well as the fundamental concepts of the activities, such as inspection, regulations and authorizations, to be carried out by the various component sectors of the Nuclear Security Naval Agency. (author)

  11. nuclea'10. Third industry meeting of the Swiss nuclear forum. Framework conditions for the renaissance of nuclear power

    International Nuclear Information System (INIS)

    Anon.

    2010-01-01

    The Swiss government and the Swiss power industry agree: Switzerland will have to renew its nuclear power plant park in a foreseeable time frame so as to prevent a threatenting gap in electricity supply. At the same time, the present lowest-CO 2 electricity mix in any industrialized country ensured by hydroelectric power and nuclear power must be safeguarded. The power industry is meeting these challenges by actively planning the replacement of existing nuclear power plants and the construction of new ones. Three framework applications for permits have been filed, and the first tenders connected to the new construction projects have been invited. This raises the question not only whether Switzerland is willing to embark on this project of a century, but also whether the country is able to do so. What are the factors helping nuclear power to achieve a breakthrough in Switzerland and its neighboring countries, provided there is public acceptance? Besides providing the necessary technical and economic resources it is the need for political and economic acceptance of nuclear power which constitutes an ongoing task for nuclear industry. nuclea is considered the meeting point of the nuclear industry in Switzerland. nuclea'10, held on November 11, 2010, served for exchanges of information between the nuclear industry and other stakeholders in nuclear power. More than 200 participants from public authorities, politics, the power industry, research and development, and vendors and service providers attended the informative and always interesting event accompanied by an industrial exhibition. (orig.)

  12. The future of nuclear reactors

    International Nuclear Information System (INIS)

    Teller, E.

    1989-01-01

    The Atomic Energy Commission Advisory Committee on Reactor Safeguards began work in early 1948 with the firm and unanimous conviction that nuclear power could not survive a significant damaging accident. They as a committee felt that their job was to make reactors so safe that no such event would ever occur. However, ambitious reactor planners did not like all the buts and cautions that the committee was raising. They seemed to delay unduly their setting sail into the brave new world of clean, cheap, safe nuclear energy. The committee was soon nicknamed the Committee on Reactor Prevention. Reactors, of course, represented a tremendous step into the future. To an unprecedented extent, they were based on theory. But the committee did not have the luxury of putting a preliminary model into operation and waiting for difficulties to show up. In assessing new designs and developments, they had to anticipate future difficulties. Their proposals in good part were accepted, but their deep emphasis on safety did not become a part of the program. Today, forty years later, the author still believes both in the need for nuclear reactors and in the need of a thorough-going, pervasive emphasis on their safety. Real, understandable safety can be achieved, and that achievement is the key to our nuclear future. The details he gives are only examples. The need for reactors that are not only safe but obviously safe can be ignored only at our peril

  13. Tournament of Young Professionals: Knowledge Transfer Environment Built on Technology of Crowdsourcing to Advance Young & Best for the Russian Nuclear Industry

    International Nuclear Information System (INIS)

    Karezin, V.; Bronnikova, I.; Terentyeva, T.

    2016-01-01

    Full text: Rosatom being the flagman of the Russian nuclear industry has succession planning as one of the crucial strategic HR objectives. Therefore, it builds different approaches to assure attraction and development of the best and most promising specialists including recent and future graduates. Tournament of young professionals (TEMP) is the corner-stone initiative to select best young professionals in frames of crowdsourcing environment where participants raise the level of professional knowledge, learn to better understand the attitudes of work in the nuclear power industry, compete under the essential tasks of real production value while stakeholders build the culture of knowledge sharing. And the entire scheme rests upon knowledge transfer from the nuclear industry experts to potential hiring pool, applied knowledge accumulation, deep industry involvement and modern Web 2.0 technology capabilities. (author

  14. Manipulating meanings. [Advertising by the nuclear industry

    Energy Technology Data Exchange (ETDEWEB)

    Burgess, J. (University College, London (United Kingdom). Dept. of Geography)

    Nuclear industry advertising in the United Kingdom is becoming more and more frequent, and is often controversial. The content and impact of recent campaigns are considered, especially the advertisement which portrays nuclear power as beneficial to the greenhouse effect. (author).

  15. Talking my language [As the nuclear industry goes global, communication becomes a bigger challenge

    International Nuclear Information System (INIS)

    Gorlin, S.

    2007-01-01

    future and existing managers to improve their cross-cultural competence, while learning about the various facets of nuclear energy, is to participate in one of the World Nuclear University (WNU) programmes. For example, the six week Summer Institute (SI) in Daejeon, South Korea in July- August 2007 will be attended by over a hundred young nuclear professionals and graduate students from over 35 countries. This is in addition to the 163 WNU 'Fellows' from 40 countries who have attended previous institutes in Idaho Falls and Stockholm. The WNU-SI comprises lectures by some of the world's foremost experts from the IAEA and industry, along with challenging leadership development tasks and technical tours. Other events being organized by the WNU Coordinating Centre in London for 2007 and 2008 also emphasize participation by a wide cross-section of learners from both developed and developing countries. They include forums for nuclear policy-makers and scientific advisers, and induction courses for executives joining the nuclear industry from other areas

  16. Enhancing Safety Culture in Complex Nuclear Industry Projects

    International Nuclear Information System (INIS)

    Gotcheva, N.

    2016-01-01

    This paper presents an on-going research project “Management principles and safety culture in complex projects” (MAPS), supported by the Finnish Research Programme on Nuclear Power Plant Safety 2015-2018. The project aims at enhancing safety culture and nuclear safety by supporting high quality execution of complex projects in the nuclear industry. Safety-critical industries are facing new challenges, related to increased outsourcing and complexity in technology, work tasks and organizational structures (Milch and Laumann, 2016). In the nuclear industry, new build projects, as well as modernisation projects are temporary undertakings often carried out by networks of companies. Some companies may have little experience in the nuclear industry practices or consideration of specific national regulatory requirements. In large multinational subcontractor networks, the challenge for assuring nuclear safety arises partly from the need to ensure that safety and quality requirements are adequately understood and fulfilled by each partner. Deficient project management practices and unsatisfactory nuclear safety culture in project networks have been recognised as contributing factors to these challenges (INPO, 2010). Prior evidence indicated that many recent major projects have experienced schedule, quality and financial challenges both in the nuclear industry (STUK, 2011) and in the non-nuclear domain (Ahola et al., 2014; Brady and Davies, 2010). Since project delays and quality issues have been perceived mainly as economic problems, project management issues remain largely understudied in safety research. However, safety cannot be separated from other performance aspects if a systemic view is applied. Schedule and quality challenges may reflect deficiencies in coordination, knowledge and competence, distribution of roles and responsibilities or attitudes among the project participants. It is increasingly understood that the performance of the project network in all

  17. Fukushima two years after: the 'irresponsible' nuclear industry

    International Nuclear Information System (INIS)

    Froggatt, Antony; McNeill, David; Thomas, Stephen; Teule, Rianne; Blomme, Brian; Erwood, Steve; Schulz, Nina; Encina, Delphine de la; Beranek, Jan; Casper, Kristin; Haverkamp, Jan; Higashizawa, Yasushi; McNevin, Greg; Riccio, Jim; Sekine, Ayako; Stensil, Shawn-Patrick; Suzuki, Kazue; Takada, Hisayo; Tumer, Aslihan; Cowell, Sue

    2013-03-01

    This report demonstrates how the nuclear sector evades responsibility for its failures. The nuclear industry is unlike any other industry: it is not required to fully compensate its victims for the effects of its large, long-lasting, and trans-boundary disasters. In this report, the current status of compensation for victims of the Fukushima disaster is analysed as an example of the serious problems due to lack of accountability for nuclear accidents. The report also looks into the role of nuclear suppliers in the failure of the Fukushima reactors. In addition, this report addresses two main protections for the industry: - Liability conventions and national laws limit the total amount of compensation available and protect nuclear suppliers, the companies that profit from the construction and operation of reactors, from any liability. This caps the funds available for victims at a fraction of real costs and removes incentives for supplier companies to take measures to reduce nuclear risks. - The complexity of and multiple layers in the nuclear supply chain exacerbate the lack of accountability for nuclear suppliers. Even though hundreds of different suppliers are providing components and services that are critical for reactor safety, these companies cannot be held accountable in case of problems. Chapter 1 of this report details the struggle of nuclear victims for fair compensation. Chapter 1 also investigates the role of the nuclear supplier companies in the Fukushima reactors. Chapter 2 gives an overview of the existing international nuclear liability conventions, and maps the impact of these problematic rules, such as capping total compensation, excluding suppliers from accountability, and allowing operators not to have sufficient financial security to cover the damages. Chapter 3 explores the involvement of suppliers throughout the lifetime of a nuclear reactor, and their responsibilities in terms of nuclear risks

  18. Proceedings of the workshop cum symposium on applications of neural networks in nuclear science and industry

    International Nuclear Information System (INIS)

    1993-01-01

    The Workshop cum Symposium on Application of Neural Networks in Nuclear Science and Industry was held at Bombay during November 24-26. 1993. The past decade has seen many important advances in the design and technology of artificial neural networks in research and industry. Neural networks is an interdisciplinary field covering a broad spectrum of applications in surveillance, diagnosis of nuclear power plants, nuclear spectroscopy, speech and written text recognition, robotic control, signal processing etc. The objective of the symposium was to promote awareness of advances in neural network research and applications. It was also aimed at conducting the review of the present status and giving direction for future technological developments. Contributed papers have been organized into the following groups: a) neural network architectures, learning algorithms and modelling, b) computer vision and image processing, c) signal processing, d) neural networks and fuzzy systems, e) nuclear applications and f) neural networks and allied applications. Papers relevant to INIS are indexed separately. (M.K.V.)

  19. Securing a better future for all: Nuclear techniques for global development and environmental protection. NA factsheet on nuclear physics: Facilitating the peaceful and practical uses of nuclear science

    International Nuclear Information System (INIS)

    2012-01-01

    When properly applied, nuclear science - the study of atomic nuclei and other subatomic particles - can contribute in many ways to the health, development and security of communities around the world. In this context, the IAEA plays an important role in helping interested Member States develop the capabilities and infrastructure necessary to manage their own programmes devoted to nuclear and radiological applications. The IAEA's nuclear science programme helps Member States to establish sound frameworks for the efficient, safe and secure use of new nuclear technologies, including accelerator facilities, research reactors and future nuclear fusion facilities. By applying nuclear technologies in a wide variety of areas such as energy production, health care, food and agriculture, industry and the environment, Member States can benefit immensely from the ensuing socioeconomic developments, as well as providing better living conditions for their citizens.

  20. The funds and the financing of the nuclear future expenses: who is going to pay the bill?

    International Nuclear Information System (INIS)

    Lahorgue, M.B.

    2007-01-01

    Nuclear industry has the particularity to generate from the commissioning of nuclear base installations, expenses of dismantling, of spent fuel processing and radioactive waste management. In view of the importance of the involved amounts and the far term of these expenditures it is important to give security to the financing of the future nuclear expenses. To that purpose, the operators have to evaluate periodically and carefully the whole of the nuclear expenses and constitute the corresponding funds but equally to command enough resources. The rules and the procedures to answer these requirements are so detailed in this text. (N.C.)

  1. Financing waste management, decommissioning and site rehabilitation in the nuclear industry

    International Nuclear Information System (INIS)

    1987-01-01

    The book on financing waste management, decommissioning and site rehabilitation in the nuclear industry, concerns the findings of a survey carried out by the Uranium Institute on the financing of the fuel cycle and utility industries in seventeen countries. The countries included:- Australia, Belgium, Canada, Finland, France, Gabon, German Federal Republic, Italy, Japan, Namibia, South Africa, Spain, Sweden, Switzerland, Taiwan, United Kingdom and United States of America. The survey revealed that provisions for future environmental management costs are being made for most facilities and operations, in some cases dating back over quite a long period. In the case of electricity, such costs are being, or about to be, included in the cost of a kWh by all of the electrical utilities examined. (U.K.)

  2. A regulatory perspective of the role of construction in revitalizing the United States nuclear industry

    International Nuclear Information System (INIS)

    Stello, V. Jr.

    1983-01-01

    Technical and managerial experience in nuclear power plant construction is presented from the perspective of the United States Nuclear Regulatory Commission (NRC). In the context of actions that would contribute to revitalizing the nuclear industry in the United States of America, greater effectiveness of utility management during construction is proposed. The reasons why management effectiveness is so important are developed beginning with summaries of defects that were built into several US plants under construction. The root causes of these significant defects were management failures. In terms of benefits, effective management is important because of its effects on nuclear safety, project construction costs, and future reliability of the plant after commissioning. Actions that would enhance good management include emphasizing the inseparable nature of production and quality, that quality cannot be inspected into a plant, and that a strong construction management staff and exchanges of experience and information are essential. Techniques that have been used successfully in construction management are discussed. NRC and industry initiatives are in progress to improve management responsibility and learning from experience. Projects include Owner's Certification, assessments of licensee performance, fostering good practices across the industry, and improving the NRC inspection programme. Revitalization will not be easy, but it is achievable. (author)

  3. Risk in Nuclear Industry. Liability for Nuclear Damage. Status of the Problem in the Russian Federation

    International Nuclear Information System (INIS)

    Kovalevich, Oleg M.; Gavrilov, Sergey D.; Voronov, Dmitry B.

    2001-01-01

    Russia is one of a few nuclear power states obtaining the whole number of nuclear fuel cycle (NFC) components - from mining of uranium and on-site electricity production, from NPP spent nuclear fuel processing and extracted fissile materials and radionuclides, which are available in industry, in medicine and in other relevant areas, to radioactive waste processing and disposal. For this reason it is very important to solve the problem of nuclear fuel cycle safety as it is a single system task with an adequate approach for all cycle components. The problem is that NFC facilities are technologically various and refer to different industries (mining, machinery engineering, power engineering, chemistry, etc.). Besides, the above facilities need the development of various scientific bases. The most NFC facilities is directly connected with peaceful use of nuclear energy and with military nuclear industry, as the defense orders stimulated the development of NFC. The specific attention to safety problems at the beginning of nuclear complex foundation adversely affected the state attitude towards the risk in nuclear industry, it has left the traces at present. In our paper we touch upon the problems of risk and the liability for nuclear damage for the third persons. The problems of nuclear damage compensation for nuclear facilities personnel and for the owners (operating organizations) are beyond our subject

  4. Efforts for nuclear energy human resource development by industry-government-academic sectors cooperation. Nuclear Energy Human Resource Development Council Report

    International Nuclear Information System (INIS)

    Yamamoto, Shinji

    2009-01-01

    The report consists of eighteen sections such as the present conditions of nuclear energy, decreasing students in the department of technology and decreasing numbers of nuclear-related subjects, The Nuclear Energy Human Resources Development Program (HRD Program), The Nuclear Energy Human Resources Development Council (HRD Council), the industry-academia partnership for human resource development, the present situation of new graduates in the nuclear field, new workers of nuclear industry, the conditions of technical experts in the nuclear energy industry, long-range forecast of human resource, increasing international efforts, nuclear energy human resources development road map, three points for HRD, six basic subjects for HRD, the specific efforts of the industrial, governmental and academic sectors, promoting a better understanding of nuclear energy and supporting job hunting and employment, students to play an active part in the world, and support of the elementary and secondary schools. Change of numbers of nuclear-related subjects of seven universities, change of number of new graduates in nuclear field of various companies from 1985 to 2006, number of people employed by nuclear industries from 1998 to 2007, number of technical experts in the electric companies and the mining and manufacturing industries and forecast of number of technical experts in total nuclear industries are illustrated. (S.Y.)

  5. Political electricity: what future for nuclear energy?

    International Nuclear Information System (INIS)

    Price, Terence.

    1990-01-01

    This book, written from the safe haven of recent retirement, is a personal and - so far as possible - non-technical exploration of the political and policy issues that have influenced the development of nuclear power. Part One describes the successes, failures, horse-trading, and infighting that make up nuclear power's history, taking nine countries as examples. Part Two reviews the main problems that now confront us. The story that emerges is of a nuclear industry that has rarely been guilty of dereliction of duty, though it was undeniably complacent in not addressing sooner the causes of the public's entirely reasonable anxieties. The anti-nuclear lobby has been skilled in debate, and sometimes extraordinarily percipient; but less than fair in failing to acknowledge the industry's achievements and its willingness to learn from past mistakes. As for the politicians, the book contains many examples that show how the flames of controversy can be deliberately fanned when there are votes to be gained. The story has few heroes, but within the industry fewer villains than the public has been led to believe. I hope that my anecdotal selection of events and issues may help readers to form their own judgements, and make it a little harder for glib assertions, from whatever quarter, to go unchallenged. (author)

  6. Nuclear energy in our future

    International Nuclear Information System (INIS)

    Hennies, H.H.

    1988-01-01

    Nuclear energy for electricity generation will extend its market portion in Europe in the coming decades because: 1) its economic and/or environment-relevant advantages compared with the fossil energy sources are so explicit that the latter will no longer be competitive; 2) the improvements of the system engineering, which are presently being implemented and are to be expected in the future, will enhance the safety facilities to the extent that accident risk will cease to be a decisive factor; 3) energy-saving effects or the use of solar energy will not provide an appropriate large scale alternative for coal and/or nuclear energy; 4) the problems of radioactive waste disposal will be definitely solved within the foreseeable future. Considering all the technological systems available the light water reactor will continue to dominate. The change to the breeder reactor is not yet under discussion because of the medium-term guaranteed uranium supply. The use of nuclear technology in the heating market will depend for the moment on the availability and cost of oil and gas development. In principle nuclear energy can play an important role also in this sector

  7. The human factor in the nuclear industry

    International Nuclear Information System (INIS)

    Colas, Armand

    1998-01-01

    After having evoked the progressive reduction and stabilization of significant incidents occurring every year in French nuclear power plants, and the challenges faced by nuclear energy (loss of public confidence, loss of competitiveness), and then outlined the importance of safety to overcome these challenges, the author comments EDF's approach to the human factor. He first highlights the importance of information and communication towards the population. He briefly discusses the meaning of human factors for the nuclear industry, sometimes perceived as the contribution people to the company's safety and performance. He comments the evolution observed in the perception of human error in different industrial or technical environments and situations, and outlines what is at stake to reduce the production of faults and organize a 'hunt for latent defects'

  8. The rebirth of the US nuclear industry

    International Nuclear Information System (INIS)

    Pitron, G.

    2008-01-01

    Fought during a long time by ecologists but recently rehabilitated by politicians, the US civil nuclear industry has started its comeback in the first power-consuming country of the world. Utilities and industrialists are already in action, and the first cooperation agreements with foreign groups, like EdF or Areva, have been signed. After three decades of stagnation, the US nuclear industry has to re-launch its fuel cycle activities, from the fuel enrichment to the waste management, and the recruitment of a new competent manpower is one of the main concerns. (J.S.)

  9. Supplier quality assurance systems: a study in the nuclear industry

    International Nuclear Information System (INIS)

    Singer, A.J.; Churchill, G.F.; Dale, B.G.

    1988-01-01

    The results are reported of a study which investigated the impact of quality assurance on 13 suppliers to the nuclear industry. The purpose of the study was to determine the benefits and problems of applying quality assurance in the supply of high risk plant items and material for nuclear installations. The paper discusses the problems facing the industry including: multiple audits and inspections, the irritation with having to contend with two quality system standards (namely BS 5750 and BS 5882) and the cost effectiveness of the more stringent quality system and quality control surveillance requirements imposed by the nuclear industry. It is also pointed out that companies supplying non-nuclear industrial customers were dissatisfied with the qualifications, experience and professional competence of some auditors and many inspectors. (author)

  10. Environmental management in nuclear industry

    International Nuclear Information System (INIS)

    Pillai, K.C.; Bhat, I.S.

    1988-01-01

    Safety of the environment is given due attention right at the design state of nuclear energy installations. Besides this engineered safety environmental protection measures are taken on (a) site selection criteria (b) waste management practices (c) prescribing dose limits for the public (d) having intensive environmental surveillance programme and (e) emergency preparedness. The paper enumerates the application of these protection measures in the environmental management to make the nuclear industry as an example to follow in the goal of environmental safety. (author)

  11. The nuclear industry and communication: a personal view

    International Nuclear Information System (INIS)

    Morvan, P.

    1989-01-01

    The nuclear industry should not be hesitant in proclaiming its belief that nuclear energy is justifiable politically, economically and ecologically. Some of the basic principles of company communication with the public as they apply to the nuclear industry, are examined. Security is of the utmost importance at all nuclear sites. The commitment to security must be based on mutual confidence between specialists and the public particularly those living in the vicinity of a nuclear plant. A precise scale by which nuclear incidents can be measured must be defined, indicating their degree of seriousness and consequently what should be done. The public must be immediately informed about nuclear accidents by specialists as unequivocally as possible. It is essential that those who work at nuclear plants be confident and proud of their jobs and the company that employs them. It is impossible to establish and maintain good public relations without a permanent flow of information within the company at all levels. The economic factors, such as increased employment opportunities, must not be overlooked either. (author)

  12. Reliability estimation for multiunit nuclear and fossil-fired industrial energy systems

    International Nuclear Information System (INIS)

    Sullivan, W.G.; Wilson, J.V.; Klepper, O.H.

    1977-01-01

    As petroleum-based fuels grow increasingly scarce and costly, nuclear energy may become an important alternative source of industrial energy. Initial applications would most likely include a mix of fossil-fired and nuclear sources of process energy. A means for determining the overall reliability of these mixed systems is a fundamental aspect of demonstrating their feasibility to potential industrial users. Reliability data from nuclear and fossil-fired plants are presented, and several methods of applying these data for calculating the reliability of reasonably complex industrial energy supply systems are given. Reliability estimates made under a number of simplifying assumptions indicate that multiple nuclear units or a combination of nuclear and fossil-fired plants could provide adequate reliability to meet industrial requirements for continuity of service

  13. Nuclear engineering. Stable industry for bright minds

    International Nuclear Information System (INIS)

    Geisler, Maja

    2009-01-01

    The Deutsches Atomforum (DAtF) invited 35 students and graduate students for 'colloquies for professional orientation' to Luenen on March 8-11, 2009. Another 39 students were guests in Speyer between March 15 and 18 this year. Participants included graduates in physics, chemistry, radiation protection, and mechanical engineering as well as students of process engineering, electrical engineering and environmental technology. The colloquies for professional orientation are a service provided by the Informationskreis Kernenergie (IK) to member firms of DAtF. At the same time, the IK in this way fulfils its duty to promote young scientists and engineers within the framework of the DAtF's basic public relations activities. After all, nuclear technology in Germany is not about to end its life. Firms with international activities are in urgent need of highly qualified young staff members. Personnel is needed for a variety of activities ranging from nuclear power plant construction to fuel fabrication to waste management and the demolition and disposal of nuclear power plants. All these areas are in need of new qualified staff. Some 750 students so far have attended the DAtF colloquies for professional orientation since 2002. Many participants were hired by industries straight away or were given opportunities as trainees or students preparing their diploma theses in the nuclear industry. These contacts with the nuclear industry should not remain a one-off experience for the students. For this reason, the IK invites the participants in colloquies again this year to attend the Annual Meeting on Nuclear Technology in Dresden on May 12-14, 2009. (orig.)

  14. The development process and tendency of nuclear instruments applied in industry

    International Nuclear Information System (INIS)

    Ji Changsong

    2005-01-01

    The development process of nuclear technique application in industry may be divided into three stages: early stage--density, thickness and level measurement; middle stage--neutron moisture, ash content and X-ray fluorescence analysis; recent state--container inspection and industrial CT, nuclear magnetic resonance, neutron capture and non-elastic collision analysis techniques. The development tendency of nuclear instruments applied in industry is: spectrum measurement; detector array and image technique; nuclide analysis and new kinds of nuclear detectors are widely adopted. (authors)

  15. Some concepts of future nuclear ship

    International Nuclear Information System (INIS)

    Fujino, Masataka

    2000-01-01

    Characteristic features of nuclear power generation are as follows: (1) Thermal energy can be continuously extracted for a long time without fuel feed, (2) Nuclear energy is suitable for generating huge power, (3) Oxygen is unnecessary for combustion of fuel, and (4) Unlike fossil fuel, nuclear power generation does not exhaust NOx, SOx, and CO 2 : it can be considered environmentally friendly. In view of these features, the Japan Atomic Energy Research Institute commissioned the Shipbuilding Research Association of Japan (JSRA) to survey what kinds of nuclear ship would be put to practical use in the near future. For this purpose, a research committee was organized in 1992 by the JSRA, and concluded its investigation in 1996. The main aim of this research was to clarify the requirements of ship performance as nuclear ships, and then to extract the technical issues of the marine reactor installed in nuclear ships to be solved. As a result of the survey, it was suggested that displacement-type large high-speed container ship would be one of the promising future nuclear merchant ships, and 6500 m deep-sea and 600 m undersea scientific research submersibles would be other promising nuclear special purpose ships. At the same time, various requirements of marine reactors, which are expected to be installed in these ships, were clarified mainly from the technical viewpoints. (author)

  16. Reorganization of the Ministries and Agencies and future nuclear energy policy in Japan

    International Nuclear Information System (INIS)

    Kitagishi, Tatsuro; Suzuki, Tatsujiro; Enomoto, Toshiaki; Kawase, Kazuharu; Izuriha, Isao; Shimohirao, Isao; Sakurai, Jun

    2001-01-01

    Japanese governmental Ministries and Agencies were reorganized to a system of one Cabinet Office and twelve Ministries and Agencies on January 6, 2001, by reformation after an interval of about a half of century. Together with this reformation, for an organization executing nuclear energy administration, the Cabinet Office, the Ministry of Education Culture, Sports, Science and Technology, and the Ministry of Economy, Trade and Industry (METI) started. Especially, at the METI, the 'Nuclear Energy Safety and Security Agency' was newly established to unitarity manage safety regulation of the nuclear energy facilities, to enforce system to upgrading of their safety Here were introduced on every content of the organization in the nuclear energy administration, to follow its future subjects under some items on new system and its development, new organization play in liberalization market, expectation to nuclear energy administration at the new system, question on national nuclear safety countermeasure from a standpoint of landing site, stable supply system of electric power, and expectation to suitable safety regulation to secure safety of old nuclear facilities. (G.K.)

  17. The roles of industry for internationalization of nuclear fuel cycle

    International Nuclear Information System (INIS)

    Choi, Jor-Shan; Oda, Takuji; Tanaka, Satoru; Kuno, Yusuke

    2011-01-01

    To meet increasing energy demand and counter climate change, nuclear energy is expected to expand during the next decades in both developed and developing countries. The Fukushima accident in Japan in March 2011 may dampen the expansion, but it would proceed and continue when the Fukushima lessons are learned. This expansion, most visibly in Asian would be accompanied with complex and intractable challenges to global stability and nuclear security, notably, on 'how to reduce security and proliferation concerns if nuclear power is introduce and when used fuel is generated in less stable regions of the world?' The answers to the question may lie in the possibility of multilateral control of nuclear materials and technologies in the nuclear fuel cycle, including the provision of a 'cradle-to-grave' fuel cycle service, presumably by the nuclear industries and their respective governments. This paper evaluates the importance of such industry-government cooperative initiative and explores into the roles which the nuclear industry should play to ensure that the world would not be 'creating proliferation when expanding the application of nuclear power to emerging nuclear countries'. (author)

  18. Vinca Institute and the Future of Nuclear Investigations

    International Nuclear Information System (INIS)

    Kopecni, M. M.

    1997-01-01

    Ever since its foundation in 1948, Vinca Institute was a nuclear-oriented scientific institution. Achieving valuable results in different fields of nuclear sciences and technologies, Vinca became and still is the largest scientific institution in the former and today's Yugoslavia. Structure and intensity of nuclear activities varied with the time, following the pattern of domestic and international interest for this kind of knowledge. The nuclear part of Vinca had its raises and falls, it is a long history, but unquestionably there is a future. This paper presents a survey of the past and the present nuclear activities in Yugoslavia, with special attention paid to the future of nuclear sciences and technologies in the Institute. (author)

  19. The safety of a nuclear industry in South Australia

    International Nuclear Information System (INIS)

    Higson, D.J.

    2016-01-01

    On 19 March 2015, the South Australian Government established a Royal Commission to consider and analyse the potential of South Australia to further participate in the nuclear fuel cycle, whether through the expansion of the current level of exploration, extraction and milling of uranium (the only parts of the nuclear power industry that are currently allowed in Australia) or by undertaking the conversion and enrichment of materials for the nuclear fuel cycle, the generation of electricity from nuclear fuels and/or the management, storage and disposal of nuclear wastes. This provides a timely opportunity to review the performance of the nuclear industry throughout the world, particularly in the safety of electricity generation and waste management, showing that - despite misconceptions about radiological risks and the significance of the accidents that have occurred - the record of this industry is exceptionally good. The Federal and South Australian State governments both have the policy that uranium mining is acceptable providing it is properly regulated. The success of this policy suggests that it is exactly the policy that should be adopted for all other parts of the nuclear fuel cycle, including the generation of electricity.

  20. Deregulation and internationalisation - impact on the Swedish nuclear industry

    International Nuclear Information System (INIS)

    Haukeland, Sverre R.

    2010-01-01

    The deregulation of the Swedish electricity market in 1996 was well known in advance, and the nuclear power plants in Sweden, as well as their main suppliers, made early preparations for a this new situation. In a study - performed by the author at Malardalen University in Sweden - it is concluded that the electricity industry, including the nuclear power plants, was fundamentally transformed in conjunction with market liberalisation. Two large foreign companies, E-on and Fortum, entered the Swedish market and became part-owners of the nuclear plants. After deregulation, the electricity market in Sweden is dominated by these two companies and the large national company Vattenfall. Similarly, Vattenfall has recently grown into an international energy company, acquiring generation capacity in Northern Europe outside of Sweden, including nuclear power plants in Germany. Restructuring of the nuclear industry on the supplier side started in the 1980's, when the Swedish company ASEA and BBC of Switzerland merged to become ABB. Several years later the Swedish nuclear plant supplier ABB-Atom became part of Westinghouse Electric Company, today owned by Toshiba. The Swedish experience thus confirms an international trend of mergers and consolidation in the nuclear industry. (authors)

  1. Quality management certification for the nuclear industry

    International Nuclear Information System (INIS)

    Wilmer, T.J.

    1993-01-01

    Historically for safety critical items, the United Kingdom nuclear companies either conducted their own inspection and audit of suppliers or sub-contracted staff to do so on their behalf. However, it is becoming unrealistic for these services to be undertaken in-house for economic reasons. The power industry is looking outside its own immediate expertise to that of 3rd Party Certification Bodies. There is a danger of introducing an element of risk unless the Certification Body really does understand the industry and its requirements. The Nuclear Installations Inspectorate (NII) makes it mandatory for nuclear installations to have in place Quality management systems that meet the requirements of BS 5882. This standard requires the use of quality assurance programmes and a greater degree of understanding of nuclear regulations and codes of practice than is required by BS 5750. This is a very significant factor, recognising as it does the need to harmonise the management interface between an operator of a nuclear installation and suppliers to that same installation. (author)

  2. Developing world class leader-managers for the evolving nuclear industry

    International Nuclear Information System (INIS)

    Konettsni, A.L.

    2010-01-01

    The author discusses the problems of educating and training the world-class leaders for nuclear industry. He specifies the leader's characters, emphasizing that common high standards of performance have been the hallmark of the industry for years. Rapid growth in the nuclear industry could diminish the self-discipline that has been developed over decades. He lists the US Naval Nuclear Propulsion Program fundamental principles developed over six decades. The author also dwells on corporate self-motivation, self-control, self-expectancy of optimism and company's image [ru

  3. Future prospects of nuclear power stations

    International Nuclear Information System (INIS)

    Teoeke, G.

    1980-01-01

    On the basis of an extensive study of the literature the energy problems of the world are analysed. The main directions of the development in the nuclear industry are outlined with special emphasis on the new uranium enrichment process. The environmental problems are also treated in the view of the Three Mile Island incident. The nuclear program of the Comecon countries is shortly presented. (R.J.)

  4. Laser robot in the nuclear industry

    International Nuclear Information System (INIS)

    Contre, M.

    1987-05-01

    Possibilities of power lasers for welding, cutting, drilling, plugging surface treatment and hard-facing are reviewed. CO 2 and Nd:YAG lasers only have adequate power for nuclear applications. Radiation effects on lasers and contamination problems are examined. Then examples of applications to nuclear industry are given: PWR fuel fabrication, oxide thickness measurement in Magnox reactors, laser cutting of a cylindrical piece of steel on the bottom of a fuel channel in a gas graphite reactor, nuclear plant dismantling and fuel reprocessing. 51 refs [fr

  5. Position paper on irradiated fuel and waste management. The Achille's heel of the nuclear industry?

    Energy Technology Data Exchange (ETDEWEB)

    Bonin, Bernard [European Nuclear Society (ENS), Brussel (Belgium). ENS High Scientific Council

    2014-07-15

    The management and final disposal of irradiated fuel and nuclear waste is often presented by the media and perceived by the public as being an unsolved problem that restricts the future of nuclear energy. However, the nuclear industry focused on this problem very early on and has developed proven technical solutions. Nuclear energy will continue developing worldwide, in spite of the Fukushima accident. Even in those European countries that have decided to phase-out nuclear energy there is a legacy of nuclear waste that must be dealt with. The scientific and technical expertise needed for waste management already exists. Management decisions must be taken. Now is the time for political courage. (orig.)

  6. Analysis on Japanese nuclear industrial technologies and their military implications

    Energy Technology Data Exchange (ETDEWEB)

    Kim, H S; Yang, M H; Kim, H J. and others

    2000-10-01

    This study covered the following scopes : analysis of Japan's policy trend on the development and utilization of nuclear energy, international and domestic viewpoint of Japan's nuclear weapon capability, Japan's foreign affairs and international cooperation, status of Japan's nuclear technology development and its level, status and level of nuclear core technologies such as nuclear reactor and related fuel cycle technologies. Japan secures the whole spectrum of nuclear technologies including core technologies through the active implementation of nuclear policy for the peaceful uses of nuclear energy during the past five decades. Futhermore, as the result of the active cultivation of nuclear industry, Japan has most nuclear-related facilities and highly advanced nuclear industrial technologies. Therefore, it is reasonable that Japan might be recognized as one of countries having capability to get nuclear capability in several months.

  7. Analysis on Japanese nuclear industrial technologies and their military implications

    International Nuclear Information System (INIS)

    Kim, H. S.; Yang, M. H.; Kim, H. J. and others

    2000-10-01

    This study covered the following scopes : analysis of Japan's policy trend on the development and utilization of nuclear energy, international and domestic viewpoint of Japan's nuclear weapon capability, Japan's foreign affairs and international cooperation, status of Japan's nuclear technology development and its level, status and level of nuclear core technologies such as nuclear reactor and related fuel cycle technologies. Japan secures the whole spectrum of nuclear technologies including core technologies through the active implementation of nuclear policy for the peaceful uses of nuclear energy during the past five decades. Futhermore, as the result of the active cultivation of nuclear industry, Japan has most nuclear-related facilities and highly advanced nuclear industrial technologies. Therefore, it is reasonable that Japan might be recognized as one of countries having capability to get nuclear capability in several months

  8. Past, Present and Future of Nuclear Power Engineering in the Republic of Kazakhstan

    International Nuclear Information System (INIS)

    Shkolnik, V.S.

    2000-01-01

    The main goal of Kazakhstan Strategy of Development till 2030 is to improve the well-being of the Society based on sustainable development of the market economy. Nowadays nuclear power engineering became an important integral part of world power production, allowing to rack up power production and assisting in solving global and regional ecological issues at the same time. However, choice of power source for a certain country or a certain region depends upon a set of different factors.Natural, social and economic conditions of Kazakhstan make it reasonable to establish and develop national nuclear power engineering that would become a basic component of power supply industry in the state. Currently, the Ministry of Power Engineering, Industry and Trade is working out a project of a State program entitled 'Development of Nuclear Power and Uranium Industry in the Republic of Kazakhstan' that will be submitted for consideration to the RK Government next December. Construction of Balkhash Atomic Power Plant planned under the Program would allow solving the problem of power supply for the southern part of the Republic. Construction and commissioning of nuclear power plants in Almaty, Astana and Ust-Kamenogorsk would provide steady and reliable heat supply in these largest cities of the Republic for a long period of time. Would the Government agree upon the State Program, we would have all the reasons to believe that in the near future the Republic of Kazakhstan will become a state with advanced nuclear power engineering based on use of up-to-date power technologies in combination with principles of cost efficiency guaranteed for general and environmental safety

  9. Qualification of NDE personnel in the nuclear industry

    International Nuclear Information System (INIS)

    Epps, T.N.

    1984-01-01

    There has been evidence of ineffective programs for certifying nondestructive examination (NDE) personnel who conduct periodic inservice examinations in nuclear power plants under ASME Section XI Code requirements. This was brought to the attention of a group from the electric utility industry, the Electric Power Research Institute (EPRI), some NDE consultants and representatives from the American Society of Mechanical Engineers (ASME) by the Nuclear Regulatory Commission (NRC) in a May, 1982 meeting in Bethesda, Maryland. One problem pointed out by the NRC was the lack of a clear definition of qualification requirements for certification of NDE personnel who conduct ASME Section XI Inservice Inspection work in nuclear power plants. The NRC requested that the nuclear industry resolve this problem by formulating definitive qualification requirements for personnel certification that could be made an industry requirement. In June, 1982 the EPRI NDE Subcommittee held a general meeting for utility representatives to discuss the results of the May, 1982 meeting to develop a plan for industry response to the issue. The consensus was that an Ad Hoc Committee of utility representatives be convened to develop a document outlining qualification requirements for vertification of NDE personnel. The Ad Hoc Committee was formally convened on September 29, 1982

  10. Current status and prospects for the nuclear industry in the USA

    International Nuclear Information System (INIS)

    Hintz, Donald C.

    2008-01-01

    The future of the nuclear industry in America, I talk about the 'stars aligning' for nuclear energy as we began taking a serious look at new strategies to meet a growing demand for energy. These stars are : · The existing plants are operating well and at high safety standards · The production costs have become very competitive · The U. S. has a growing need for base load generation · Public support is at an all-time high · And, while I was chairman of the Nuclear Energy Institute, the U. S. Energy Bill was passed - with strong bipartisan support The U. S. Department of Energy estimates demand for electricity will increase in our country by 50 percent over the next 20 years. Put another way, we will need to build over 1,000 new power plants by 2020. That's about one per week. So we must work now to ensure that further supply is available, which will require exploration of new sources of power, including the latest nuclear technologies

  11. Subcontracting in nuclear industry - legal aspects

    International Nuclear Information System (INIS)

    Leger, M.

    2012-01-01

    This article describes the legal framework of subcontracting in France. Subcontracting is considered as a normal mode of functioning for an enterprise: an enterprise contracts another enterprise to do what it can not do itself or does not want to do. According to the 1975 law, cascade subcontracting is allowed but subcontractors have to be accepted by the payer. In some cases the payer can share responsibility when the subcontracting enterprises do not comply to obligations like the payment of some taxes. The main subcontractor who is the one who contracted with the payer is the only one responsible for the right execution of the whole contract. In nuclear industry there are 2 exceptions to the freedom of subcontracting. The first one concerns radiation protection: in a nuclear facility the person in charge of radioprotection must be chosen among the staff. The second concerns the operations and activities that are considered important for radiation protection, it is forbidden to subcontract them. In some cases like maintenance in nuclear sector the law imposes some qualification certification for subcontracting enterprises. The end of the article challenges the common belief about subcontracting in nuclear industry. (A.C.)

  12. The World Nuclear Industry Status Report: 1992

    International Nuclear Information System (INIS)

    Flavin, Christopher; Lenssen, Nicholas; Froggatt, Antony; Willis, John; Kondakji, Assad; Schneider, Mycle

    1992-05-01

    The World Nuclear Industry Status Report provides a comprehensive overview of nuclear power plant data, including information on operation, production and construction. The WNISR assesses the status of new-build programs in current nuclear countries as well as in potential newcomer countries. This first WNISR Report was issued in 1992 in a joint publication with WISE-Paris, Greenpeace International and the World Watch Institute, Washington

  13. Further activities of safety culture toward nuclear transportation industry

    International Nuclear Information System (INIS)

    Machida, Y.; Shimakura, D.

    2004-01-01

    On September 30, 1999, a criticality accident occurred at the uranium processing facility of the JCO Co. Ltd. (hereinafter referred to as ''JCO'') Tokai plant, located in Tokaimura, Ibaraki Prefecture. This was an unprecedented accident in Japan's history of peaceful use of nuclear power, resulting in three workers exposed to severe radiation, two of whom died, and the evacuation and enforced indoor confinement of local residents. Nuclear power suppliers must take personal responsibility for ensuring safety. In this connection, the electric power industry, heavy electric machinery manufacturers, fuel fabricators, and nuclear power research organizations gathered together to establish the Nuclear Safety Network (NSnet) in December 1999, based on the resolve to share and improve the level of the safety culture across the entire nuclear power industry and to assure that such an accident never occurs again. NSnet serves as a link between nuclear power enterprises, research organizations, and other bodies, based on the principles of equality and reciprocity. A variety of activities are pursued, such as diffusing a safety culture, implementing mutual evaluation among members, and exchanging safety-related information. Aiming to share and improve the safety culture throughout the entire nuclear power industry, NSnet thoroughly implements the principle of safety first, while at the same time making efforts to restore trust in nuclear power

  14. The nuclear power industry in the Asia-Pacific region

    International Nuclear Information System (INIS)

    Lester, R.K.

    1984-01-01

    The development of the nuclear reactor industry in the Pacific Basin began in the United States and Canada and spread to Japan and, more recently, to South Korea and Taiwan. The American and Canadian industries face serious economic and political difficulties; indeed, their current plight is so severe that their survival no longer seems assured. Because of the key regional role played up to now by the North American industries, and by the U.S. industry in particular, the realization of this scenario would have important repercussions for nuclear trade and investment throughout the region. In the longer run some basic structural changes would seem likely, with the focal point of industrial strength and technological leadership in the region shifting to Northeast Asia, and to Japan in particular. Already there is evidence of this shift. But the prospect of a smooth, gradual transition toward a new regional industrial structure centered on Japan may be misleading. What is missing from this picture is a full measure of the extent to which nuclear industrial development elsewhere in the region is positively correlated with the trend in the United States. (author)

  15. Nuclear insurance in the future Internal Market

    International Nuclear Information System (INIS)

    Mueller-Stein, J.

    1991-01-01

    Summarizing, it is prognosticated that nuclear insurance practice will not drastically change on account of the Internal Market. This assumption is based on the unanimous estimation of the nuclear energy risk by the international insurance industry, as is documented by their traditional good cooperation in pools. (orig.) [de

  16. Nuclear energy and the nuclear energy industry

    International Nuclear Information System (INIS)

    Bromova, E.; Vargoncik, D.; Sovadina, M.

    2013-01-01

    A popular interactive multimedia publication on nuclear energy in Slovak. 'Nuclear energy and energy' is a modern electronic publication that through engaging interpretation, combined with a number of interactive elements, explains the basic principles and facts of the peaceful uses of nuclear energy. Operation of nuclear power plants, an important part of the energy resources of developed countries, is frequently discussed topic in different social groups. Especially important is truthful knowledgeability of the general public about the benefits of technical solutions, but also on the risks and safety measures throughout the nuclear industry. According to an online survey 'Nuclear energy and energy' is the most comprehensive electronic multimedia publication worldwide, dedicated to the popularization of nuclear energy. With easy to understand texts, interactive and rich collection of accessories stock it belongs to modern educational and informational titles of the present time. The basic explanatory text of the publication is accompanied by history and the present time of all Slovak nuclear installations, including stock photos. For readers are presented the various attractions legible for the interpretation, which help them in a visual way to make a more complete picture of the concerned issue. Each chapter ends with a test pad where the readers can test their knowledge. Whole explanatory text (72 multimedia pages, 81,000 words) is accompanied by a lot of stock of graphic materials. The publication also includes 336 photos in 60 thematic photo galleries, 45 stock charts and drawings, diagrams and interactive 31 videos and 3D models.

  17. Intelligent robotics and remote systems for the nuclear industry

    International Nuclear Information System (INIS)

    Wehe, D.K.; Lee, J.C.; Martin, W.R.; Tulenko, J.

    1989-01-01

    The nuclear industry has a recognized need for intelligent, multitask robots to carry out tasks in harsh environments. From 1986 to the present, the number of robotic systems available or under development for use in the nuclear industry has more than doubled. Presently, artificial intelligence (AI) plays a relatively small role in existing robots used in the nuclear industry. Indeed, the lack of intelligence has been labeled the ''Achilles heel'' of all current robotic technology. However, larger-scale efforts are underway to make the multitask robot more sensitive to its environment, more capable to move and perform useful work, and more fully autonomous via the use of AI. In this paper, we review the terminology, the history, and the factors which are motivating the development of robotics and remove systems; discuss the applications related to the nuclear industry; and, finally, examine the state of the art of the technologies being applied to introduce more autonomous capabilities. Much of this latter work can be classified as within the artificial intelligence framework. (orig.)

  18. Big problems for Swedish nuclear industry

    International Nuclear Information System (INIS)

    Holmstroem, Anton; Runesson, Linda

    2006-01-01

    A report of the problems for Swedish nuclear industry the summer of 2006. A detailed description of the 25th of July incident at Forsmark 1 is provided. The incident was classified as level two on the INIS scale. The other Swedish nuclear plants were subject to security evaluations in the aftermath, and at Forsmark 2 similar weaknesses were found in the security system (ml)

  19. Transfer of Knowledge Management Methods and Tools to and from the Nuclear Industry

    International Nuclear Information System (INIS)

    Pasztory, Z.; Gyulay, T.

    2016-01-01

    Full text: The discipline of the knowledge management was firstly introduced in Japan by the leading technology companies like Toyota, Canon, Honda, Mitsubishi, Sharp and others. It means outside the nuclear industry. The nuclear industry organizations including the IAEA started to deal with the knowledge management about ten years later and adapted those approaches, methods and tools developed and used in other industry organizations. After more than fifteen-years of its programmatic existence of the nuclear knowledge management in the IAEA, the trend is turn round in many topics. The nuclear industry organizations have more and more good practices to share with other industries. Meanwhile the world leading companies working in a quickly changing market environment are still developing and using KM practices which can be useful also in the “slowly-changing” nuclear industry environment. In this article we would like to pay attention—through some examples—to the importance of the benchmarking with companies outside the nuclear industry for the further safe and reliable operation of nuclear facilities and to educate and train the next nuclear generation. (author

  20. International nuclear energy law - present and future

    International Nuclear Information System (INIS)

    Barrie, G.N.

    1988-01-01

    International nuclear energy law, as discussed in this article, is the law relating to the global, peaceful uses of nuclear science and technology. The position of nuclear law in the wide realm of law itself as well as the present status of nuclear legislation is assessed. This article also covers the development of international nuclear energy law, from the first nuclear law - the New Zealand Atomic Energy Act of 1945-, the present and the future. National and international organizations concerned with nuclear energy and their contribribution to nuclear law are reviewed

  1. Nuclear industry - challenges in chemical engineering

    International Nuclear Information System (INIS)

    Sen, S.; Sunder Rajan, N.S.; Balu, K.; Garg, R.K.; Murthy, L.G.K.; Ramani, M.P.S.; Rao, M.K.; Sadhukhan, H.K.; Venkat Raj, V.

    1978-01-01

    Chemical engineering processes and operations are closely involved in every step of the nuclear fuel cycle. Starting from mining and milling of the ore through the production of fuel and other materials and their use in nuclear reactors, fuel reprocessing, fissile material recycle and treatment and disposal of fission product wastes, each step presents a challenge to the chemical engineer to evolve and innovate processes and techniques for more efficient utilization of the energy in the atom. The requirement of high recovery of the desired components at high purity levels is in itself a challenge. ''Nuclear Grade'' specifications for materials put a requirement which very few industries can satisfy. Recovery of uranium and thorium from low grade ores, of heavy water from raw water, etc. are examples. Economical and large scale separation of isotopes particularly those of heavy elements is a task for which processess are under various stages of development. Further design of chemical plants such as fuel reprocessing plants and high level waste treatment plants, which are to be operated and maintained remotely due to the high levels of radio-activity call for engineering skills which are being continually evolved. In the reactor, analysis of the fluid mechanics and optimum design of heat removal system are other examples where a chemical engineer can play a useful role. In addition to the above, the activities in the nuclear industry cover a very wide range of chemical engineering applications, such as desalination and other energy intensive processes, radioisotope and radiation applications in industry, medicine and agriculture. (auth.)

  2. The future of nuclear I and C applications

    International Nuclear Information System (INIS)

    Chexal, V.K.; Lang, J.F.; Marston, T.U.; Stahlkopf, K.E.

    1991-01-01

    In response to industry's recognition that a substantial portion of the nuclear plant I and C capability in the U.S. is outdated and without vendor support, EPRI has set a strategic goal to complete the modernization of I and C systems in at least 10 nuclear plants by the year 2000. Cooperation is being sought from suppliers, utilities, and government agencies. The draft I and C plan is now out for industry review and feedback. Based on this paper the plan is revised to take advantage of industry insights. The next step will be to select contractors and alliance partners, and get the work underway

  3. Modeling operational risks of the nuclear industry with Bayesian networks

    Energy Technology Data Exchange (ETDEWEB)

    Wieland, Patricia [Pontificia Univ. Catolica do Rio de Janeiro (PUC-Rio), RJ (Brazil). Dept. de Engenharia Industrial; Comissao Nacional de Energia Nuclear (CNEN), Rio de Janeiro, RJ (Brazil)], e-mail: pwieland@cnen.gov.br; Lustosa, Leonardo J. [Pontificia Univ. Catolica do Rio de Janeiro (PUC-Rio), RJ (Brazil). Dept. de Engenharia Industrial], e-mail: ljl@puc-rio.br

    2009-07-01

    Basically, planning a new industrial plant requires information on the industrial management, regulations, site selection, definition of initial and planned capacity, and on the estimation of the potential demand. However, this is far from enough to assure the success of an industrial enterprise. Unexpected and extremely damaging events may occur that deviates from the original plan. The so-called operational risks are not only in the system, equipment, process or human (technical or managerial) failures. They are also in intentional events such as frauds and sabotage, or extreme events like terrorist attacks or radiological accidents and even on public reaction to perceived environmental or future generation impacts. For the nuclear industry, it is a challenge to identify and to assess the operational risks and their various sources. Early identification of operational risks can help in preparing contingency plans, to delay the decision to invest or to approve a project that can, at an extreme, affect the public perception of the nuclear energy. A major problem in modeling operational risk losses is the lack of internal data that are essential, for example, to apply the loss distribution approach. As an alternative, methods that consider qualitative and subjective information can be applied, for example, fuzzy logic, neural networks, system dynamic or Bayesian networks. An advantage of applying Bayesian networks to model operational risk is the possibility to include expert opinions and variables of interest, to structure the model via causal dependencies among these variables, and to specify subjective prior and conditional probabilities distributions at each step or network node. This paper suggests a classification of operational risks in industry and discusses the benefits and obstacles of the Bayesian networks approach to model those risks. (author)

  4. Modeling operational risks of the nuclear industry with Bayesian networks

    International Nuclear Information System (INIS)

    Wieland, Patricia; Lustosa, Leonardo J.

    2009-01-01

    Basically, planning a new industrial plant requires information on the industrial management, regulations, site selection, definition of initial and planned capacity, and on the estimation of the potential demand. However, this is far from enough to assure the success of an industrial enterprise. Unexpected and extremely damaging events may occur that deviates from the original plan. The so-called operational risks are not only in the system, equipment, process or human (technical or managerial) failures. They are also in intentional events such as frauds and sabotage, or extreme events like terrorist attacks or radiological accidents and even on public reaction to perceived environmental or future generation impacts. For the nuclear industry, it is a challenge to identify and to assess the operational risks and their various sources. Early identification of operational risks can help in preparing contingency plans, to delay the decision to invest or to approve a project that can, at an extreme, affect the public perception of the nuclear energy. A major problem in modeling operational risk losses is the lack of internal data that are essential, for example, to apply the loss distribution approach. As an alternative, methods that consider qualitative and subjective information can be applied, for example, fuzzy logic, neural networks, system dynamic or Bayesian networks. An advantage of applying Bayesian networks to model operational risk is the possibility to include expert opinions and variables of interest, to structure the model via causal dependencies among these variables, and to specify subjective prior and conditional probabilities distributions at each step or network node. This paper suggests a classification of operational risks in industry and discusses the benefits and obstacles of the Bayesian networks approach to model those risks. (author)

  5. A position paper for a central procurement organization for the nuclear power industry

    International Nuclear Information System (INIS)

    Hendricks, J.R.

    1996-01-01

    This paper integrates the results of numerous nuclear utility industry meetings with commercial business practices. The Central Procurement Organization (CPO) is designed to achieve an immediate 30%--50% reduction in total procurement, engineering qualification, warehousing, and distribution cost. Three (3) areas define a CPO success criteria: (1) Lean, credible, and cost-effective issues discussed include facility cost, operational cost, staff expertise, product priorities, warehousing, and distribution, (2) Common technical, commercial, and quality requirement issues discussed include current industry practices and proposed future methodologies, and (3) Financial survivability issues which are the most critical since the CPO must exist during changing internal and external utility environments

  6. Problems and future outlook in the nuclear equipment manufacturing industry

    International Nuclear Information System (INIS)

    Suenaga, Soichiro

    1984-01-01

    The energy policy in Japan is based on a balance between the energy security and the energy cost for the purpose of realizing optimal supply/demand structure. In this field, nuclear equipment manufacturers should cooperate in the settlement of LWR power generation through plant safety and reliability and through high economical efficiency, all involving the advancement of technology. As a new concept being developed, there is an APWR (advanced PWR) which has the electric output of 1,350 MWe. The export of nuclear power plants, though there are various problems, should be enhanced in the high-technology export area. The following matters are described: the settlement of and the heightening of technology in nuclear power generation, the development of the advanced PWR, and the measures for the export of nuclear power plants and components. (Mori, K.)

  7. Crunch time for nuclear power

    International Nuclear Information System (INIS)

    Edwards, Rob.

    1994-01-01

    The Federal Republic of Germany, one of the most advanced nations, technically has a thriving nuclear power industry. However there is stiff opposition to nuclear power from political parties and environmental groups. General elections due to be held in mid October hold the future of the nuclear industry in the balance. If the present opposition party comes to power, it is committed to a policy of phasing out nuclear power completely. At the centre of the political uproar is the Gorleben ''interim store'' which is intended to house Germany's spent fuel for at least the next forty years. The nuclear industry must resolve the issue of nuclear waste disposal to the voters' satisfaction if it is to have a viable future. (UK)

  8. Advances in chemical engineering in nuclear and process industries

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    1994-06-01

    Symposium on Advances in Chemical Engineering in Nuclear and Process Industries dealt with a wide spectrum of areas encompassing various industries such as nuclear, fertilizer, petrochemical, refinery and cement. The topics covered in the symposium dealt with the advancements in the existing fields of science and technologies as well as in some of the emerging technologies such as membrane technology, bio-chemical and photo-chemical engineering etc. with a special emphasis on nuclear related aspects. Papers relevant to INIS are indexed separately.

  9. Advances in chemical engineering in nuclear and process industries

    International Nuclear Information System (INIS)

    1994-06-01

    Symposium on Advances in Chemical Engineering in Nuclear and Process Industries dealt with a wide spectrum of areas encompassing various industries such as nuclear, fertilizer, petrochemical, refinery and cement. The topics covered in the symposium dealt with the advancements in the existing fields of science and technologies as well as in some of the emerging technologies such as membrane technology, bio-chemical and photo-chemical engineering etc. with a special emphasis on nuclear related aspects. Papers relevant to INIS are indexed separately

  10. The European nuclear power industry: Restructuring for combined strength and worldwide leadership

    International Nuclear Information System (INIS)

    Forsberg, C.W.; Norman, R.E.; Reich, W.J.; Hill, L.J.

    1993-01-01

    The European nuclear power industry is being restructured from an industry drawn along national lines to a European-wide industry. This, in part, reflects growth of the European Economic Community, but it also reflects changes in the international nuclear power industry. The objectives of the participants, beyond better integration of the nuclear industry in Western Europe, are to (1) obtain European leadership of the worldwide commercial nuclear power industry, (2) improve medium- and long-term safety of Eastern Europe and the former Soviet Union (FSU) power reactors, and (3) reduce domestic concerns about nuclear power. The activities to achieve these goals include (1) formation of Nuclear Power International (a joint venture of the German and French nuclear power plant vendors for design and construction of nuclear power plants), (2) formation of a utility group to forge agreement throughout Europe on what the requirements are for the next generation of nuclear power plants, and (3) agreement by regulators in multiple European countries to harmonize regulations. This is to be achieved before the end of the decade. These changes would allow a single design of nuclear power plant to be built anywhere in Europe. The creation of European-wide rules (utility requirements, engineering standards, and national regulations) would create strong economic and political forces for other European countries (Eastern Europe and FSU) to meet these standards

  11. The European nuclear power industry: Restructuring for combined strength and worldwide leadership

    Energy Technology Data Exchange (ETDEWEB)

    Forsberg, C.W.; Norman, R.E.; Reich, W.J.; Hill, L.J.

    1993-06-18

    The European nuclear power industry is being restructured from an industry drawn along national lines to a European-wide industry. This, in part, reflects growth of the European Economic Community, but it also reflects changes in the international nuclear power industry. The objectives of the participants, beyond better integration of the nuclear industry in Western Europe, are to (1) obtain European leadership of the worldwide commercial nuclear power industry, (2) improve medium- and long-term safety of Eastern Europe and the former Soviet Union (FSU) power reactors, and (3) reduce domestic concerns about nuclear power. The activities to achieve these goals include (1) formation of Nuclear Power International (a joint venture of the German and French nuclear power plant vendors for design and construction of nuclear power plants), (2) formation of a utility group to forge agreement throughout Europe on what the requirements are for the next generation of nuclear power plants, and (3) agreement by regulators in multiple European countries to harmonize regulations. This is to be achieved before the end of the decade. These changes would allow a single design of nuclear power plant to be built anywhere in Europe. The creation of European-wide rules (utility requirements, engineering standards, and national regulations) would create strong economic and political forces for other European countries (Eastern Europe and FSU) to meet these standards.

  12. Chernobyl coverage: how the US media treated the nuclear industry

    International Nuclear Information System (INIS)

    Friedman, S.M.; Gorney, C.M.; Egolf, B.P.

    1992-01-01

    This study attempted to uncover whether enough background information about nuclear power and the nuclear industries in the USA, USSR and Eastern and Western Europe had been included during the first two weeks of US coverage of the Chernobyl accident so that Americans would not be misled in their understanding of and attitudes toward nuclear power in general. It also sought to determine if reporters took advantage of the Chernobyl accident to attack nuclear technology or the nuclear industry in general. Coverage was analysed in five US newspapers and on the evening newscasts of the three major US television networks. Despite heavy coverage of the accident, no more than 25% of the coverage was devoted to information on safety records, history of accidents and current status of nuclear industries. Not enough information was provided to help the public's level of understanding of nuclear power or to put the Chernobyl accident in context. However, articles and newscasts generally balanced use of pro- and anti-nuclear statements, and did not include excessive amounts of fear-inducing and negative information. (author)

  13. National standards for the nuclear industry

    International Nuclear Information System (INIS)

    Laing, W.R.; Corbin, L.T.

    1981-01-01

    Standards needs for the nuclear industry are being met by a number of voluntary organizations, such as ANS, ASTM, AWS, ASME, and IEEE. The American National Standards Institute (ANSI) coordinates these activities and approves completed standards as American National Standards. ASTM has two all-nuclear committees, E-10 and C-26. A C-26 subcommittee, Test Methods, has been active in writing analytical chemistry standards for twelve years. Thirteen have been approved as ANSI standards and others are ready for ballot. Work is continuing in all areas of the nuclear fuel cycle

  14. Nuclear systems of the future. Stakes, R and D strategy, and international cooperation; Les systemes nucleaires du futur. Enjeux, strategie de recherche et developpement, et cooperation internationale

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    2005-07-01

    As demonstrated by prospective studies, nuclear energy will represent a decisive contribution in the future energy mix. The long-term strategy of development of nuclear energy requires to foresee a new generation of nuclear systems, named generation 4. The goal of these new systems is to optimize the use of nuclear fuels, to minimize the generation of wastes and to enlarge the field of applications of nuclear energy to other applications like: hydrogen and synthetic fuels generation, heat generation for the industry etc. This document presents the French R and D strategy on nuclear systems of 4. generation that has been approved by the public authorities. This strategy follows three axes: a priority research on fast neutron systems with fuel recycle (sodium fast reactors (SFR) and gas fast reactors (GFR)), a research on key-technologies for the supply of very high temperature heat (very high temperature reactor (VHTR), fast and thermal neutron reactors, and water decomposition processes), and a continuation of researches on PWR reactors improvement. An integral recycling of all actinides in fast neutron reactors requires the development of new fuel reprocessing and fuel re-fabrication processes. A reference scenario for the progressive renewal of French nuclear facilities foresees the simultaneous development of fast neutron systems and the start-up of a new spent fuel reprocessing plant. France in involved in the development of the SFR, GFR and VHTR systems thanks to its participation to the Generation 4 international forum and to bilateral cooperation with other big nuclear partners like Russia and China. One of the main stakes of the French nuclear industry is to be able to invest in the R and D of future nuclear systems in order to valorize the experience gained so far in sodium FBR systems and in fuel cycle processes. (J.S.)

  15. Assessment of industrial energy options based on coal and nuclear systems

    International Nuclear Information System (INIS)

    Anderson, T.D.; Bowers, H.I.; Bryan, R.H.; Delene, J.G.; Hise, E.C.; Jones, J.E. Jr.; Klepper, O.H.; Reed, S.A.; Spiewak, I.

    1975-07-01

    Industry consumes about 40 percent of the total primary energy used in the United States. Natural gas and oil, the major industrial fuels, are becoming scarce and expensive; therefore, there is a critical national need to develop alternative sources of industrial energy based on the more plentiful domestic fuels--coal and nuclear. This report gives the results of a comparative assessment of nuclear- and coal-based industrial energy systems which includes technical, environmental, economic, and resource aspects of industrial energy supply. The nuclear options examined were large commercial nuclear power plants (light-water reactors or high-temperature gas-cooled reactors) and a small [approximately 300-MW(t)] special-purpose pressurized-water reactor for industrial applications. Coal-based systems selected for study were those that appear capable of meeting environmental standards, especially with respect to sulfur dioxide; these are (1) conventional firing using either low- or high-sulfur coal with stack-gas scrubbing equipment, (2) fluidized-bed combustion using high-sulfur coal, (3) low- and intermediate-Btu gas, (4) high-Btu pipeline-quality gas, (5) solvent-refined coal, (6) liquid boiler fuels, and (7) methanol from coal. Results of the study indicated that both nuclear and coal fuel can alleviate the industrial energy deficit resulting from the decline in availability of natural gas and oil. However, because of its broader range of application and relative ease of implementation, coal is expected to be the more important substitute industrial fuel over the next 15 years. In the longer term, nuclear fuels could assume a major role for supplying industrial steam. (U.S.)

  16. Development present situation analysis of nuclear power industry in China and South Korea

    International Nuclear Information System (INIS)

    Huang Gang

    2011-01-01

    This paper introduces the present state and primary development experiences of South Korean nuclear power industry and the present state of Chinese nuclear power industry development, and comparatively analyzes and researches the differences between China and South Korea in nuclear power industry. At last, we come up with some suggestions and ideas to refer the follow-up development of Chinese nuclear power industry. (author)

  17. Usage of industrial robots in nuclear power industry

    International Nuclear Information System (INIS)

    Matsuo, Yoshio; Hamada, Kenjiro

    1982-01-01

    Japan is now at the top level in the world in robot technology.Its application to nuclear power field is one of the most expected. However, their usage spreads over various types of nuclear power plants, their manufacture and operation, and other areas such as fuel reprocessing plants and reactor plant decommissioning. The robots as used for the operation of BWR nuclear power plants, already developed and under development, are described: features in the nuclear-power usage of robots, the robots used currently for automatic fuel exchange, the replacement of control rod drives and in-service inspection; the robots under development for travelling inspection device and the inspection of main steam-relief safety valves, future development of robots. By robot usage, necessary personnel, work period and radiation exposure can be greatly reduced, and safety and reliability are also raised. (Mori, K.)

  18. The industrial nuclear fuel cycle in Argentina

    International Nuclear Information System (INIS)

    Koll, J.H.; Kittl, J.E.; Parera, C.A.; Coppa, R.C.; Aguirre, E.J.

    1977-01-01

    The nuclear power program of Argentina for the period 1976-85 is described, as a basis to indicate fuel requirements and the consequent implementation of a national fuel cycle industry. Fuel cycle activities in Argentina were initiated as soon as 1951-2 in the prospection and mining activities through the country. Following this step, yellow-cake production was initiated in plants of limited capacity. National production of uranium concentrate has met requirements up to the present time, and will continue to do so until the Sierra Pintada Industrial Complex starts operation in 1979. Presently, there is a gap in local production of uranium dioxide and fuel elements for the Atucha power station, which are produced abroad using Argentine uranium concentrate. With its background, the argentine program for the installation of nuclear fuel cycle industries is described, and the techno-economical implications considered. Individual projects are reviewed, as well as the present and planned infrastructure needed to support the industrial effort [es

  19. Analysis on Japanese nuclear industrial technologies and their military implications

    Energy Technology Data Exchange (ETDEWEB)

    Kim, H. S.; Yang, M. H.; Kim, H. J. and others

    2000-10-01

    This study covered the following scopes : analysis of Japan's policy trend on the development and utilization of nuclear energy, international and domestic viewpoint of Japan's nuclear weapon capability, Japan's foreign affairs and international cooperation, status of Japan's nuclear technology development and its level, status and level of nuclear core technologies such as nuclear reactor and related fuel cycle technologies. Japan secures the whole spectrum of nuclear technologies including core technologies through the active implementation of nuclear policy for the peaceful uses of nuclear energy during the past five decades. Futhermore, as the result of the active cultivation of nuclear industry, Japan has most nuclear-related facilities and highly advanced nuclear industrial technologies. Therefore, it is reasonable that Japan might be recognized as one of countries having capability to get nuclear capability in several months.

  20. Nuclear energy and its future prospects

    International Nuclear Information System (INIS)

    Fells, I.

    1981-01-01

    The most difficult task for the nuclear industry to cope with is education of the public and the politicians in such manner that the emotional reaction resulting from insufficient information is replaced by critical, well-balanced consideration of the hazards and benefits associated with nuclear energy. Only if this is achieved the influential politicians can, according to the author, represent public opinion and set up an acceptable energy strategy. (orig.) [de

  1. Establishing a Nuclear Industrial Structure The Spanish Case

    International Nuclear Information System (INIS)

    Palacios, L.

    1989-01-01

    Nuclear industry is nationalistic all over the world. This fact is at first glance rather surprising, since one would guess that the localization drive should start with segments of industry of a less sophisticated nature. The reason probably lies on the fact that nuclear disciplines are new and can be conceived as an easier task for planners than other techniques where industrial relationships are already established. The process of increasing domestic content has important implications and crucial decisions have to be made. A general process of technology transfer has to be assured, investments have to be made in new plant and a sizable number of engineers and technicians has to be trained. Technology transfer in the nuclear field seems to be the practical extent dictated by the availability of raw materials and the economy of scale for some components. Table V lists the content achieved in specific classes of equipment. The process has been successful and has enabled Spanish Industry to be present in the world market. Countries embarking in similar programs have expressed interest in the Spanish process as representative of medium development industry that, by determination and serious work, has achieved an advanced status, overcoming deficiencies that are not normally encountered in more developed societies. Spanish Industry is of course ready to share its experience with interested parties, thus contributing to orient local industries by advising them on the successes achieved as an example to follow, and the mistakes made, to prevent occurrence

  2. Role of nuclear reactors in future military satellites

    International Nuclear Information System (INIS)

    Buden, D.; Angelo, J.A. Jr.

    1982-01-01

    Future military capabilities will be profoundly influenced by emerging Shuttle Era space technology. Regardless of the specific direction or content of tomorrow's military space program, it is clear that advanced space transportation systems, orbital support facilities, and large-capacity power subsystems will be needed to create the generally larger, more sophisticated military space systems of the future. This paper explores the critical role that space nuclear reactors should play in America's future space program and reviews the current state of nuclear reactor power plant technology. Space nuclear reactor technologies have the potential of satisfying power requirements ranging from 10 kW/sub (e)/ to 100 MW/sub (e)/

  3. NIC (Nuclear Industry in China) exhibition. Press file

    International Nuclear Information System (INIS)

    1998-01-01

    Framatome participated to the NIC exhibition which took place in Beijing (China) on March 1998. This press dossier was distributed to visitors. It presents in a first part the activities of the Framatome group in people's republic of China (new constructions (Daya Bay, Ling Ao project), technological cooperation and contracts in the nuclear domain, technology transfers in the domain of nuclear fuels, activities and daughter companies in the domain of industrial equipments, Framatome Connectors International (FCI) daughter company in the domain of connectors engineering). Then, the general activities of Framatome in the nuclear, industrial equipment, and connectors engineering domains are summarized in the next 3 parts. (J.S.)

  4. Perception of risk and the future of nuclear power

    Energy Technology Data Exchange (ETDEWEB)

    Slovic, P [University of Oregon and Decision Research, Eugene, OR (United States)

    1990-07-01

    Scientists and policy makers were slow to recognize the importance of public attitudes and perceptions in shaping the fate of nuclear power. In 1976, Alvin Weinberg observed: 'As I compare the issues we perceived during the infancy of nuclear energy with those that have emerged during its maturity, the public perception and acceptance of nuclear energy appears to be the question that we missed rather badly.... This issue has emerged as the most critical question concerning the future of nuclear energy.' Today, fourteen years later, the problem of public acceptance is even more critical. Either the problem is damn tough or we have not been working hard enough to solve it (I suspect that both of these assertions are true). Public support for nuclear power has declined steadily for a decade and a half, driven by a number of powerful forces and events. In mid-March of 1979, the movie The China Syndrome had its premier, dramatizing the worst-case predictions of the earliest risk assessment studies. Two weeks later, events at Three Mile Island made the movie appear prophetic. Succeeding years have brought us Chernobyl and other major technological disasters, most notably Bhopal and the Challenger accident. The public has drawn a common message from these accidents - that nuclear (and other) complex technology is unsafe, that expertise is inadequate, and that government and industry cannot be trusted to manage nuclear power safely. These dramatic accidents and the distrust they have spawned have been reinforced by numerous chronic problems involving radiation, such as the discovery of significant radon concentrations in many homes, the continuing battles over the siting of facilities to store or dispose of nuclear wastes, and the disclosures of serious environmental contamination emanating from nuclear weapons facilities (at Hanford, Fernald, Rocky Flats and Savannah River)

  5. Perception of risk and the future of nuclear power

    International Nuclear Information System (INIS)

    Slovic, P.

    1990-01-01

    Scientists and policy makers were slow to recognize the importance of public attitudes and perceptions in shaping the fate of nuclear power. In 1976, Alvin Weinberg observed: 'As I compare the issues we perceived during the infancy of nuclear energy with those that have emerged during its maturity, the public perception and acceptance of nuclear energy appears to be the question that we missed rather badly.... This issue has emerged as the most critical question concerning the future of nuclear energy.' Today, fourteen years later, the problem of public acceptance is even more critical. Either the problem is damn tough or we have not been working hard enough to solve it (I suspect that both of these assertions are true). Public support for nuclear power has declined steadily for a decade and a half, driven by a number of powerful forces and events. In mid-March of 1979, the movie The China Syndrome had its premier, dramatizing the worst-case predictions of the earliest risk assessment studies. Two weeks later, events at Three Mile Island made the movie appear prophetic. Succeeding years have brought us Chernobyl and other major technological disasters, most notably Bhopal and the Challenger accident. The public has drawn a common message from these accidents - that nuclear (and other) complex technology is unsafe, that expertise is inadequate, and that government and industry cannot be trusted to manage nuclear power safely. These dramatic accidents and the distrust they have spawned have been reinforced by numerous chronic problems involving radiation, such as the discovery of significant radon concentrations in many homes, the continuing battles over the siting of facilities to store or dispose of nuclear wastes, and the disclosures of serious environmental contamination emanating from nuclear weapons facilities (at Hanford, Fernald, Rocky Flats and Savannah River)

  6. News from nuclear industry

    International Nuclear Information System (INIS)

    Anon.

    2008-01-01

    A cooperation agreement has been signed between Indian and French governments concerning energy and research. This agreement opens the Indian market to Areva for the supply of power reactors. Areva will face Russian and American competitors. Areva is already present in India in the sectors of power transmission and distribution, it employs 3500 people and operates 8 industrial plants. Areva and Northrop Grumman have signed an agreement to build the biggest site on American soil dedicated to the manufacturing of big nuclear components like reactor vessels, steam generators and pressurizers. An opinion poll shows that 78% Americans favor the use of nuclear energy for producing electricity, while 24% are opposed to it and that nuclear power plants are considered safe by 78% of the population. The Areva-Bechtel corporation has signed an agreement with Unistar Nuclear Energy for doing the preliminary studies for the construction of an EPR near the Calvert Cliffs site. More than 500 engineers are working on the project that benefit from the feedback experience of 4 EPR that are presently being built in Finland, France and China. The European Commission wants the European Union to play a major role in nuclear safety, a task group has been created whose purpose is to define new regulations illustrating common priorities and approaches for unifying national nuclear safety standards among the member states. (A.C.)

  7. The application of radiation technology in industrial processes: current and future perspectives

    International Nuclear Information System (INIS)

    Silverman, J.

    1975-01-01

    The development of nuclear power has been responsible for many by-products, among them radioactive fission products. In the late 1940's and early 1950's considerable efforts were made to develop industrial processes that could make use of the fission products in large quantities. Although some fission products are utilized today, the scale does not approach the quantities that will be produced in a nuclear economy. The efforts have not been a failure, however, and the research to develop industrial processes has created markets, not for the fission products as one had hoped, but for the radioisotope Cobalt-60 produced by neutron capture in a nuclear reactor, and for accelerators - machines that produce radiation in a controlled manner. Success in finding uses for the major fission products may yet come, as research continues in the radiation chemistry and radiation biology fields. Radiation processing is now a vigorously expanding area because of sharp increases in the reliability of electron beam generators, sharp drops in the unit cost of both electron beam power and electron beam energy, significant advances in radiation chemistry leading to lower dose requirements and increased engineering knowledge and practical experience. he principal reasons for its bright future promise arise from expectations of further sharp decreases in the unit cost of electron beam energy and from the recent successful adoption of radiation on a large scale for cross linking of telephone wire insulation in the United States. (author)

  8. Which future for nuclear counter-proliferation?

    International Nuclear Information System (INIS)

    Duval, M.

    2010-01-01

    Dealing with the case of nuclear weapons possessed by nuclear states (but not eventually by terrorists), the author first identifies the constants of counter-proliferation: it is linked to interest conflicts between those who try to preserve their monopoly and those who try to acquire a new weapon either because of a threat or for reasons of regional prestige, the evolution from use to deterrence, the appearance of new actors after the USA and Russia, the role of nuclear tactical weapons, and the future of Russian weapons and know-how. He presents the international counter-proliferation context: the Non Proliferation Treaty (NPT), the IAEA and its controls, the Nuclear Supplier Group (NSG), the nuclear-free zones, the Comprehensive Test Ban Treaty (CTBT), the Missile Technology Control Regime (MTCR). He describes how and why proliferation occurs: uranium enrichment and plutonium technology, political reasons in different parts of the world. Then, he gives an overview of the proliferation status by commenting the cases of Israel, Iraq, India, Pakistan, North Korea, and Iran. He discusses the future of proliferation (involved countries, existence of a nuclear black market) and of counter-proliferation as far as Middle-East and North Korea are concerned. He tries finally to anticipate the consequences for nuclear deterrence strategy, and more particularly for Europe and France

  9. Activities of Japan Nuclear Technology Institute Japanese TSO of Industry

    International Nuclear Information System (INIS)

    Nagata, T.

    2010-01-01

    Nuclear energy is a superior form of energy in that it delivers stable power supplies and counters global warming, and it is important to promote nuclear power generation as the core power sources for a nation. However, the Japanese environment surrounding nuclear energy is changing drastically, following the liberalization of market and recent series of troubles or falsifications shaking public confidence in nuclear energy. In the above mentioned situation, nuclear industries and organizations must fulfill their individual roles, and amass its strength to work toward enhancing industry initiatives for safety activities, securing safe / stable plant operations, restoring public confidence and initiate revitalization of nuclear energy operations. The Japan Nuclear Technology Institute (JANTI) has been established as a new entity for supporting and leading the industry's further progress in March 2005. Members of JANTI are not only utilities but also component manufacturers and constructors. JANTI enhance the technological foundation of nuclear energy based on scientific and rational data, coordinates its use among a wide range of relevant organizations, and helps members enhance their voluntary safety activities. At the same time, it is independent of utilities, and exercises a function of checking industry at the objective, third-party standpoint. As for the activities of JANTI itself, information disclosure and the establishment of a council comprising external members will enhance administration transparency. (author)

  10. The Nuclear Power Institute Programs for Human Resource Development for the Nuclear Industry

    International Nuclear Information System (INIS)

    Peddicord, K.L.

    2014-01-01

    Principal conclusions: 1. NPI is a full-scope, end-to-end, integrated approach to human resource development. Participation of government and government agencies, and elected officials and decision makers is vital. These key individuals and organizations encourage the effort, and provide support, a voice and advocacy for NPI and its programs. 2. Critical role of vocational training. The majority of the workforce does not involve only B.S. level engineers, but are graduates from two-year programs that are developed in collaboration with industry that prepare them for careers as technologists and technicians at a nuclear power plant. 3. In education and training, education is only part of the story. Collaboration with industry results in: – curricula, material, inputs and programs, – opportunities for students to benefit from industry mentors and get onsite experience, and – work on real-world, industry defined problems. 4. Outreach is instrumental in: –engaging with the next generation both for support of nuclear power and in building the workforce, and –generating vital contacts with the community to foster public understanding and acceptance of nuclear energy

  11. Nuclear industry strategic asset management: Managing nuclear assets in a competitive environment

    International Nuclear Information System (INIS)

    Mueller, H.; Hunt, E.W. Jr.; Oatman, E.N.

    1999-01-01

    The former Electric Power Research Institute took the lead in developing an approach now widely known as strategic asset management (SAM). The SAM methodology applies the tools of decision/risk analysis used in the financial community to clarify effective use of physical assets and resources to create value: to build a clear line of sight to value creation. SAM processes have been used in both the power and other industries. The rapid change taking place in the nuclear business creates the need for competitive decision making regarding the management of nuclear assets. The nuclear industry is moving into an era in which shareholder value is determined by the net revenues earned on power marketed in a highly competitive and frequently low-priced power market environment

  12. Computer systems and nuclear industry

    International Nuclear Information System (INIS)

    Nkaoua, Th.; Poizat, F.; Augueres, M.J.

    1999-01-01

    This article deals with computer systems in nuclear industry. In most nuclear facilities it is necessary to handle a great deal of data and of actions in order to help plant operator to drive, to control physical processes and to assure the safety. The designing of reactors requires reliable computer codes able to simulate neutronic or mechanical or thermo-hydraulic behaviours. Calculations and simulations play an important role in safety analysis. In each of these domains, computer systems have progressively appeared as efficient tools to challenge and master complexity. (A.C.)

  13. Nuclear Industry Family Study

    International Nuclear Information System (INIS)

    1993-01-01

    This is a copy of the U.K.A.E.A. Question and Answer brief concerning an epidemiological study entitled the Nuclear Industry Family Study, to investigate the health of children of AEA, AWE, and BNFL Workers. The study is being carried out by an independent team of medical research workers from the London School of Hygiene and Tropical Medicine, and the Imperial Cancer Research Fund. (UK)

  14. Overview of the Russian nuclear industry; Le panorama nucleaire russe

    Energy Technology Data Exchange (ETDEWEB)

    NONE

    2008-02-15

    In 2004, President Poutine decided to replace the atomic energy ministry (Minatom) by the federal atomic energy agency (Rosatom). Several projects were launched during the next two years which aimed at bringing back Russia to the fore front of the world leaders of nuclear energy use and nuclear technology export. In 2007, Rosatom agency was changed to a public holding company and a new company, named Atomenergoprom, was created which gathers all civil nuclear companies (AtomEnergoMash for the exploitation of power plants, Technabsexport (Tenex) specialized in enrichment or Atomstryexport in charge of export activities). Thus, Rosatom is at the head of all civilian and military nuclear companies, of all research centers, and of all nuclear and radiological safety facilities. In 2006, Russian nuclear power plants supplied 15.8% of the whole power consumption. Russia wishes to develop its nuclear program with the construction of new reactors in order to reach a nuclear electricity share of 25% from now to 2020. This paper presents first the 2007 institutional reform of the Russian atomic sector, and the three sectorial federal programmes: 1 - development of the nuclear energy industrial complex for the 2007-2010 era and up to 2015 (future power plants, nuclear fuel centers and reactor prototypes), 2 - nuclear safety and radioprotection for the 2008-2015 era (waste management, remedial actions, radiation protection), 3 - military program (confidential). Then, the paper presents: the international actions (export of Russian technology, cooperation agreements, non-proliferation), the situation of the existing nuclear park (reactors in operation, stopped, under construction and in project), the fuel cycle activities (production of natural uranium, enrichment, fuel fabrication, spent fuel storage, reprocessing, waste management), the nuclear R and D in Russia, and the nuclear safety authority. (J.S.)

  15. The nuclear industry and the NPT: a perspective from Washington

    International Nuclear Information System (INIS)

    Porter, D.J.

    1987-01-01

    Whilst exporting nuclear reactors, the nuclear industry in the United States and other nuclear exporting countries also supports the Non-Proliferation Treaty. The nuclear industry needs the IAEA safeguards and the NPT as these allow the nuclear trade to be conducted in an orderly fashion. Non-sensitive equipment, materials and technology can be made available to other nations which adhere to the NPT. Indeed article IV of the NPT encourages this. Many developing countries do not, however, have the money to pay for the imported technology. This article looks at the current situation in the world where nuclear technology has been, is being, or will be, transferred. (U.K.)

  16. Role of nuclear fusion in future energy systems and the environment under future uncertainties

    International Nuclear Information System (INIS)

    Tokimatsu, Koji; Fujino, Jun'ichi; Konishi, Satoshi; Ogawa, Yuichi; Yamaji, Kenji

    2003-01-01

    Debates about whether or not to invest heavily in nuclear fusion as a future innovative energy option have been made within the context of energy technology development strategies. This is because the prospects for nuclear fusion are quite uncertain and the investments therefore carry the risk of quite large regrets, even though investment is needed in order to develop the technology. The timeframe by which nuclear fusion could become competitive in the energy market has not been adequately studied, nor has roles of the nuclear fusion in energy systems and the environment. The present study has two objectives. One is to reveal the conditions under which nuclear fusion could be introduced economically (hereafter, we refer to such introductory conditions as breakeven prices) in future energy systems. The other objective is to evaluate the future roles of nuclear fusion in energy systems and in the environment. Here we identify three roles that nuclear fusion will take on when breakeven prices are achieved: (i) a portion of the electricity market in 2100, (ii) reduction of annual global total energy systems cost, and (iii) mitigation of carbon tax (shadow price of carbon) under CO 2 constraints. Future uncertainties are key issues in evaluating nuclear fusion. Here we treated the following uncertainties: energy demand scenarios, introduction timeframe for nuclear fusion, capacity projections of nuclear fusion, CO 2 target in 2100, capacity utilization ratio of options in energy/environment technologies, and utility discount rates. From our investigations, we conclude that the presently designed nuclear fusion reactors may be ready for economical introduction into energy systems beginning around 2050-2060, and we can confirm that the favorable introduction of the reactors would reduce both the annual energy systems cost and the carbon tax (the shadow price of carbon) under a CO 2 concentration constraint

  17. Further activities of safety culture toward nuclear transportation industry

    Energy Technology Data Exchange (ETDEWEB)

    Machida, Y.; Shimakura, D. [NSnet, Tokyo (Japan)

    2004-07-01

    On September 30, 1999, a criticality accident occurred at the uranium processing facility of the JCO Co. Ltd. (hereinafter referred to as ''JCO'') Tokai plant, located in Tokaimura, Ibaraki Prefecture. This was an unprecedented accident in Japan's history of peaceful use of nuclear power, resulting in three workers exposed to severe radiation, two of whom died, and the evacuation and enforced indoor confinement of local residents. Nuclear power suppliers must take personal responsibility for ensuring safety. In this connection, the electric power industry, heavy electric machinery manufacturers, fuel fabricators, and nuclear power research organizations gathered together to establish the Nuclear Safety Network (NSnet) in December 1999, based on the resolve to share and improve the level of the safety culture across the entire nuclear power industry and to assure that such an accident never occurs again. NSnet serves as a link between nuclear power enterprises, research organizations, and other bodies, based on the principles of equality and reciprocity. A variety of activities are pursued, such as diffusing a safety culture, implementing mutual evaluation among members, and exchanging safety-related information. Aiming to share and improve the safety culture throughout the entire nuclear power industry, NSnet thoroughly implements the principle of safety first, while at the same time making efforts to restore trust in nuclear power.

  18. French lessons - can they help the US nuclear industry?

    International Nuclear Information System (INIS)

    Jasper, J.M.

    1987-01-01

    Many analyses of the politics and economics of nuclear energy in the United States rely on comparisons of US reactor programs with those of France, which have proven to be more successful. The kernel of the comparison is that France has a large and growing nuclear system that produces most of the country's electricity, little political resistance, electric rates that are among the lowest in Europe, and independence from the vicissitudes of the oil markets. By contrast, in the US there are widespread political resistance and unfavorable public opinion, uncertainty about future plans for nuclear energy, and a generally costly set of reactors that produce about 15% of the country's electricity. What is more, the relatively expensive American plants are often thought of to be less safe than their cheaper French counterparts. In attempting to explain the French success and the US failure, observers have been all too prone to single out as the root cause a particular political or economic factor that differs between the two countries. One of the major shortcomings of this approach is that there are a number of relevant differences, any of which could play a part in affecting the countries' nuclear programs and which may not be easily changed. Moreover, implicit in each explanation is a prescription for how to aid the ailing nuclear industry in the United States--a prescription that may well be questionable

  19. A new context for the nuclear research and industry

    International Nuclear Information System (INIS)

    2000-01-01

    Pascal Colombani, general administrator of the CEA, develops in this presentation the situation of the nuclear industry to introduce the new orientations of the CEA group. The energy context, the deregulation impacts, the energy dependence and the greenhouse effect project are discussed before the presentation of the research programs and the necessary reorganizing of the nuclear industry. (A.L.B.)

  20. Master’s degree in Nuclear Engineering UPC-ENDESA. Creating synergy at industrial and academic levels

    Energy Technology Data Exchange (ETDEWEB)

    Batet, I.; Calviño, F.; Duch, M.A.; Dies, J.; León, P.; Fernández-Olano, P.

    2015-07-01

    The Master’s degree in Nuclear Engineering, born from the alignment of objectives of Academy and Industry, aims to prepare competent engineers to assume managerial positions within the Nuclear Industry. MNE is completely taught in English. Synergies are established at both industrial and academic levels. MNE syllabus has been designed (and is being continuously improved) with the help of industrial partners and the Spanish Regulatory Body (CSN). One half of the lectures are delivered by professionals external to the university. Besides ENDESA, other companies (ANAV, AREVA, ENRESA, ENSA, ENUSA, IDOM, Nuclenor, Tecnatom, Westinghouse) collaborate in the master. Lecturers from CSN and CIEMAT (the major Spanish research centre) participate in the Master as well. A large portion of the master contents is delivered as Project Based Learning, In general, active learning and team work activities are thoroughly used so as to help the students achieve the learning objectives and acquire a number of soft skills required by industry. MNE is embedded in EMINE, the European Master in Nuclear Energy (European Institute of Technology, KIC-InnoEnergy). As well, MNE is part of a double degree in the Barcelona Engineering School (ETSEIB) with the official Master in Industrial Engineering (MUEI). Having in the same classroom EMINE and MNE students creates a good working atmosphere, while allowing the future engineers work in a multicultural and international environment. The double degree MNE-MUEI allows students to acquire the MNE competencies and, at the same time, legal engineering attributions. It has been useful to attract good engineering students to the master. (Author)