The struggle for safe nuclear expansion in China

International Nuclear Information System (INIS)

Xu, Y.C.

2014-01-01

After a temporary halt following the Fukushima nuclear disaster in March 2011, China resumed its fast, yet cautious, expansion of nuclear energy programme. Nuclear energy is considered as part of the general strategy to deal with the challenges of energy security and climate change and to advance with ‘state of the art’ technology in its development. This article briefly discusses recent development in and driving forces behind nuclear industry in China, and several challenges it has been facing: how to adopt, adapt, standardise and indigenise whose technologies, and how to address the shortage of qualified nuclear engineers, scientists, skilled labour force and qualified regulators. More importantly, it argues that safe and secure nuclear development requires consistent policies and effective regulations. Therefore, it is crucial to build policy and regulatory capacities based on coordination, planning and management of government agencies and the industry. - Highlights: • Nuclear energy development in China. • Nuclear technology selection. • Human capital. • Regulatory regime. • Safe and secure development

First Conference on African Youth Nuclear Summit 2017: Nuclear for a Sustainable Future

International Nuclear Information System (INIS)

2017-03-01

Kenyan Young Generation in Nuclear (KYGN) hosted the inaugural African Youth Nuclear Summit, dubbed AYNS2017 that took place on the 27th to 30th March, 2017, Nairobi, Kenya. The participants were drawn from academia, research and development institutes, radiation services providers, health institutions, nuclear facilities and regulatory bodies. They shared experiences, exchanged ideas and built networks on issues related to safe application of nuclear science and technology. The theme of the summit was ''Nuclear for a Sustainable future'', which centered on three thematic areas: Nuclear powering Africa, Radiation Protection and safety culture; and application of nuclear science and technology for a sustainable future. The Director General, World Nuclear Association who pointed out that nuclear energy had made a major contribution to world energy output and was set to increase by two and half time by 2040. The importance of nuclear science and technology for a sustainable socio-economic development in Africa shared and highlight on many areas IAEA has helped member states in improving the life of its populations. The main activities of project 60 whose focus is to strengthen the nuclear security culture in East and Central Africa through improved regulation, training, capacity and awareness were highlighted

The future of nuclear power

International Nuclear Information System (INIS)

Maichel, G.

2001-01-01

The market and competition, political boundary conditions, ecological boundary conditions, science and technology as well as international aspects are factors decisive in the future use of nuclear power. The agreement reached between the federal government and the power utilities in June 2000 represents a workable compromise - without winners or losers - in a situation in which action was urgently required. Once the agreement has been put into effect by legislators and the executive, operation of the nuclear power plants still on stream can be continued on a long term basis under safe boundary conditions. This requires an amendment to the Atomic Energy Act reflecting the sense of the agreement reached, the constructive inclusion of the federal states, and the immediate, legally assured execution of necessary transports of spent fuel and the construction of on-site stores for spent fuel. In the common interest, the question of final storage should not suffer from politically motivated delays. Factors favoring the further use of nuclear power continue to be mainly ecological and economic ones. The economic performance of plants is being documented very clearly, especially in the course of the deregulation of the electricity market, and the objective of finding a power supply system which protects the climate seems to be attainable only by nuclear power also in countries other than Germany. In the course of globalization, and in the light of thoughts about building new nuclear power plants also in European countries, it must also be in the public interest to preserve competence in nuclear technology, together with a capable infrastructure, in Germany. In addition, strengthening research and development is important in securing the future technical performance capability of Germany. (orig.) [de

30 years of experience in safe transportation of nuclear materials

International Nuclear Information System (INIS)

Kaneko, K.

2004-01-01

In April 2003, Nuclear Fuel Transport Co., Ltd. (NFT) marked the 30 th anniversary of its founding. NFT was established in 1973 and in 1978, commenced SF transport to the reprocessing plant in Tokai-mura. And then, after making preparations to transport nuclear materials to the various facilities at the Nuclear Fuel Cycle Center in Rokkasho-mura, NFT successfully started transportation of LLW (low level waste) to Rokksho-mura's LLW disposal center in 1992, domestic land transportation of HLW returned from overseas to the HLW storage center in 1995, domestic land transportation of natural hexafluoride delivered from overseas to the uranium enrichment plant in 1996, and transportation of SF to the reprocessing plant in 2000. NFT has realized an annual SF transportation capacity of 300 MTU and is currently making great company wide efforts to meet the Rokkasho Reprocessing Plant's future SF annual reprocessing capacity of 800MTU. At the end of FY2003, NFT had successfully transported 560 casks (about 1,730 MTU) of SF in more than 200 voyages in total, about 160,000 drums of LLW in around 100 voyages in total. This paper introduces the record of safe transport and its experience over the past 30 years and prospect for future transport business

30 years of experience in safe transportation of nuclear materials

Energy Technology Data Exchange (ETDEWEB)

Kaneko, K. [Nuclear Fuel Transport Co., Ltd., Tokyo (Japan)

2004-07-01

In April 2003, Nuclear Fuel Transport Co., Ltd. (NFT) marked the 30{sup th} anniversary of its founding. NFT was established in 1973 and in 1978, commenced SF transport to the reprocessing plant in Tokai-mura. And then, after making preparations to transport nuclear materials to the various facilities at the Nuclear Fuel Cycle Center in Rokkasho-mura, NFT successfully started transportation of LLW (low level waste) to Rokksho-mura's LLW disposal center in 1992, domestic land transportation of HLW returned from overseas to the HLW storage center in 1995, domestic land transportation of natural hexafluoride delivered from overseas to the uranium enrichment plant in 1996, and transportation of SF to the reprocessing plant in 2000. NFT has realized an annual SF transportation capacity of 300 MTU and is currently making great company wide efforts to meet the Rokkasho Reprocessing Plant's future SF annual reprocessing capacity of 800MTU. At the end of FY2003, NFT had successfully transported 560 casks (about 1,730 MTU) of SF in more than 200 voyages in total, about 160,000 drums of LLW in around 100 voyages in total. This paper introduces the record of safe transport and its experience over the past 30 years and prospect for future transport business.

The safety of nuclear power: Strategy for the future

International Nuclear Information System (INIS)

1992-01-01

The conference took place in Vienna from 2 to 6 September 1991. It was attended by approximately 350 participants from about fifty countries and 12 international organizations. The conference was directed to decision makers on nuclear safety and energy policy at the technical policy level. Its objective was to review the nuclear power safety issues on which international consensus would be desirable, to address the concerns on nuclear safety expressed by the WCED, and to formulate recommendations for future actions by national and international authorities to advance nuclear safety to the highest level, including proposals for the IAEA's future activities for consideration by its governing bodies. Background Papers were prepared in advance of the conference by Expert Groups on the following five issues: Fundamental principles for the safe use of nuclear power; Ensuring and enhancing safety of operating plants; Treatment of nuclear power plants built to earlier safety standards; The next generation of nuclear power plants; Final disposal of radioactive waste. On the basis of comments received on these papers from IAEA Member States, significant topics for discussion were identified. These topics and the papers formed the basis of the discussions from which the conference arrived at recommendations for future action by national and international authorities. A separate abstract was prepared for the opening speeches, background papers, major findings of the conference and the President's closing statement. 2 figs, 1 tab

Responsibility for safe management of spent nuclear fuel - a legal perspective

International Nuclear Information System (INIS)

Cramer, Per; Stendahl, Sara; Erhag, Thomas

2010-10-01

This study analyzes, based on Section 10 of the Swedish Nuclear Activities Act, the legal structures surrounding the issue of responsibility for safe management and final disposal of spent nuclear fuel. The purpose is to shed light on the legal aspects that must be considered in the future licensing process and thereby contribute to a better understanding of the importance of the legal structures for the decisions about final disposal that lie ahead of us. The overall question is thus future-oriented: What interpretation is it reasonable to assume will be given to the requirements of the Nuclear Activities Act on 'safe management and final disposal' of the spent nuclear fuel in the coming licensing process? The approach we take to this question is in part traditionally jurisprudential and based on a study of the travaux preparatoires (drafting history) of the Act and other legal sources. In addition, a study of legal practice is included where previous licensing processes are studied. One conclusion that can be drawn from this study is that the Swedish regulation of nuclear activities creates a legal basis for exacting far-reaching industrial responsibility from the reactor owners, but also for an extensive and interventionist state influence over the activities. Of central importance in the model for division of responsibility that was established via the Nuclear Activities Act in 1984 is the RDandD programme (Research, Development and Demonstration). The RDandD programme reflects the political will that the requirement of 'safe management' should be met through research. The statutory forms for how the programme is to be organized reflect an ambition to place great responsibility for execution and financing on the industry, but also, and not least, an ambition to retain instruments of control and influence in the hands of the state. It is difficult to judge whether the hopes of the 1980s regarding the influence of the public over this process have been fulfilled

A hazy nuclear renaissance [Global initiatives call for developing advanced reactors and promoting nuclear education. The future is far from clear

International Nuclear Information System (INIS)

Murogov, V.M.

2007-01-01

As energy issues rise on the global agenda, what role is foreseen for nuclear power over the coming decades? Is enough being done to bring new reactors - and the knowledge to run them safely - on line when they are needed, especially in developing countries where energy demand is growing fastest? There are no easy answers, though some directions are emerging. Important developments are influencing the changing nuclear workforce, nuclear power technology, and the education of the next generation of leaders. A prime challenge is to preserve the knowledge and experience already acquired in nuclear fields so as to have a solid foundation from which to achieve safe and secure solutions. Fortunately, some global initiatives can help to pave the road to nuclear power's future and its contributions to sustainable development. They include steps taken by the IAEA, such as the International Project on Innovative Nuclear Reactors and Fuel Cycles (INPRO) and the World Nuclear University (WNU). Both initiatives are helping to raise awareness about education and knowledge management and the need for advanced nuclear technologies. Regrettably in Russia, as in the USA, Western Europe and developing nuclear countries, more attention and support is needed for nuclear education and training - and in preserving decades of nuclear experience that has fed such international initiatives. According to this author, opportunities are being lost in his view, leading to a hazy nuclear future

Mathematical model for choosing the nuclear safe matrix compositions for fissile material immobilization

International Nuclear Information System (INIS)

Gorshtein, A.I.; Matyunin, Yu.I.; Poluehktov, P.P.

2000-01-01

A mathematical model is proposed for preliminary choice of the nuclear safe matrix compositions for fissile material immobilization. The IBM PC computer software for nuclear safe matrix composition calculations is developed. The limiting concentration of fissile materials in the some used and perspective nuclear safe matrix compositions for radioactive waste immobilization is calculated [ru

Future prospects for nuclear power at home and overseas

International Nuclear Information System (INIS)

Collier, J.G.

1994-01-01

Nuclear power will provide energy throughout the next century and beyond, not 'too cheap to meter,' but cleanly, safely and economically, nonetheless. However the drivers behind its continued development will not be those of the century now drawing to its close - defence needs and the quest to explore new technology. They will be the growing needs of future generations of consumers and the ever increasing concern for the environment. Before attempting to peer into the future it is always worth reviewing the past to see what lessons have been learnt. (Author)

Safe-geometry pneumatic nuclear fuel powder blender

International Nuclear Information System (INIS)

Lyon, W.L.

1979-01-01

The object of this invention is to provide a nuclear fuel powder mixing tank in which the powder can be rapidly and safely mixed and in which accumulation of critical amounts of fuel is prevented. (UK)

Nuclear Materials Diversion Safety and the Long-term Future of Nuclear Energy

International Nuclear Information System (INIS)

Knapp, V.

2002-01-01

Primarily due to irresponsible cold war politics of nuclear weapon countries nuclear proliferation situation is little short of getting out of control. In addition to five nominal nuclear weapon countries there are at present at least three more nuclear weapon countries and several countries with nuclear weapon potential. Non-proliferation treaty (NPT), signed in 1970, has been recognized by most non-nuclear weapon countries as unjust and ineffective. After the initial, deliberate, nuclear weapon developments of five nominal nuclear weapon countries, subsequent paths to nuclear weapons have been preceded by nominal peaceful use of nuclear energy. Uranium enrichment installations as well as reprocessing installations in non-nuclear weapon countries are the weakest spots of fuel cycle for diversion of nuclear materials either by governments or by illicit groups. An energy scenario, which would, by the end of century, replace the large part of fossil fuels use through extension of present nuclear practices, would mean very large increase in a number of such installations, with corresponding increase of the probability of diversion of nuclear materials. Such future is not acceptable from the point of view of proliferation safety. Recent events make it clear, that it cannot be accepted from the requirements of nuclear terrorism safety either. Nuclear community should put it clearly to their respective governments that the time has come to put general interest before the supposed national interest, by placing all enrichment and reprocessing installations under full international control. Such internationalization has a chance to be accepted by non-nuclear weapon countries, only in case should it apply to nuclear weapon countries as well, without exception. Recent terrorist acts, however horrible they were, are child,s play compared with possible acts of nuclear terrorism. Nuclear energy can be made proliferation safe and diversion of nuclear materials safe, and provide

How safe are nuclear power plants

International Nuclear Information System (INIS)

Danzmann, H.J.

1976-01-01

The question 'how safe are nuclear power plants' can be answered differently - it depends on how the term 'safety' is understood. If the 'safety of supply' is left out as a possibility of interpretation, then the alternative views remain: Operational safety in the sense of reliability and safety of personnel and population. (orig.) [de

Nuclear energy, energy for the present and the future; Energia nuclear, una energia para el presente y el futuro

Energy Technology Data Exchange (ETDEWEB)

Arredondo S, C. [ININ, 52750 La Marquesa, Estado de Mexico (Mexico)]. e-mail: cas@nuclear.inin.mx

2008-07-01

In this work we will try to show that nuclear energy can contribute to the generation energy in the present and the future, considering that its effect on the climatic change is relatively low and that the fuels that uses are available a large scale. At the moment it is had already commercial thermal fission reactors , there are also them of fast fission that allow the fuel rearing, although these last ones in much smaller number, with both types of fission nuclear reactors can be obtained a very important contribution to the generation of energy at world-wide level during the time that is necessary so that it is developed, constructs and operates the first commercial fusion reactor. The energy that is generated in the present and future must come from different sources, which require to be reliable, to have little effect on the environment, to have wide reserves of fuels and to be viable from an economic and social point of view, they must be viable and safe. Between possible alternative energies it is counted on the lot, the wind one, the geothermal one, originating of the tides and some others. An energy that must be considered so that it has arrived at his maturity and he is already able to contribute widely to cover the present needs and future it is nuclear energy, as much the originating one of the fission of a heavy centre like obtained when fusing two light centers. On base in the nuclear fuel reserves at world-wide level a simple calculation takes control of the lapse in which energy by means of the nuclear fission in rearing can be generated reactors expresses demonstrating that the time sufficient to finish to the investigation and development of fusion reactors which they generate energy in economic, safe and reliable form. Combining these two options the nuclear energy can be considered the future like for the present and the future with practically null effects in the climatic change. (Author)

Management for nuclear power plants for safe operation

International Nuclear Information System (INIS)

Kueffer, K.

1981-01-01

This lecture covers management aspects which have an immediate bearing on safety and identifies the objectives and tasks of management which are required for safe operation of a nuclear power plant and is based on the Codes of Practice and Safety Guides of the IAEA as well as arrangements in use at the Swiss Nuclear Power Station Beznau. (orig./RW)

Preparation of human resources for future nuclear energy using FBNR as the instrument of learning

International Nuclear Information System (INIS)

Sefidvash, Farhang; Espinoza, Patricio; Guerrero, Victor Hugo

2015-01-01

An increasing number of developing countries are showing interest to become the emerging countries to nuclear energy. Most of these countries lack human resources and adequate infrastructures to enter such a venture. The principle objective of activities of FBNR Group is to train human resources for the countries that at the present lack the necessary conditions, but aim at the future clean and safe nuclear energy through the fourth generation and INPRO compatible nuclear reactors. The preparation for the future nuclear energy is done through development of innovative nuclear reactor that meets the INPRO philosophies and criteria. These countries may or may not have decided as yet to utilize nuclear energy, but are interested to gain a strong educational foundation for their future. The research and development of a small innovative nuclear reactor FBNR is used as the instrument for learning. The young scientists will learn how to be innovative with the vision of INPRO philosophy and criteria.

Preparation of human resources for future nuclear energy using FBNR as the instrument of learning

Energy Technology Data Exchange (ETDEWEB)

Sefidvash, Farhang; Espinoza, Patricio; Guerrero, Victor Hugo [Escuela Politecnica Nacional (EPN), Quito (Ecuador); and others

2015-11-15

An increasing number of developing countries are showing interest to become the emerging countries to nuclear energy. Most of these countries lack human resources and adequate infrastructures to enter such a venture. The principle objective of activities of FBNR Group is to train human resources for the countries that at the present lack the necessary conditions, but aim at the future clean and safe nuclear energy through the fourth generation and INPRO compatible nuclear reactors. The preparation for the future nuclear energy is done through development of innovative nuclear reactor that meets the INPRO philosophies and criteria. These countries may or may not have decided as yet to utilize nuclear energy, but are interested to gain a strong educational foundation for their future. The research and development of a small innovative nuclear reactor FBNR is used as the instrument for learning. The young scientists will learn how to be innovative with the vision of INPRO philosophy and criteria.

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.)

Inherently safe characteristics of nuclear reactors

International Nuclear Information System (INIS)

1989-01-01

This report is based on a detailed study which was carried out by Colenco (a company of the Motor-Columbus Group) on behalf of the Commission of the European Communities (CEC). It presents a summary of this study and concentrates more on the generic issues involved in the subject of inherent safety in nuclear power plants. It is assumed that the reader is reasonably familiar with the design outline of the systems included in the report. The report examines the role of inherent design features in achieving the safety of nuclear power plants as an alternative to the practice, which is largely followed in current reactors, of achieving safety by the addition of engineered safety features. The report examines current reactor systems to identify the extent to which their characteristics are either already inherently safe or, on the other hand, have inherent characteristics that require protective action to be taken. It then considers the advantages of introducing design changes to improve their inherent safety characteristics. Next, it looks at some new reactor types for which claims of inherent safety are made to see to what extent these claims are justified. The general question is then considered whether adoption of the inherently safe reactors would give advantages (by reducing risk in real terms or by improving the public acceptability of nuclear power) which are sufficient to offset the expected high costs and the technical risks associated with any new technology

Safe and peaceful use of nuclear energy - an IAEA perspective. Address. Deutsche Gesellschaft fuer Auswaertige Politik, Bonn, 17 April 1998

International Nuclear Information System (INIS)

ElBaradei, M.

1998-01-01

The document reproduces the text of the conference given by the Director General of the IAEA at the Deutsche Gesellschaft fuer Auswaertige Politik in Bonn on 17 April 1998. After a presentation of the Agency's role in the safe and peaceful use of nuclear energy, the conference gives an overview of the main issues facing nuclear energy in the following three major areas: the contribution of nuclear energy to economic and social development, nuclear safety, and verification. In the last part, the Director General makes some comments about the future

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)

SAFE testing nuclear rockets economically

International Nuclear Information System (INIS)

Howe, Steven D.; Travis, Bryan; Zerkle, David K.

2003-01-01

Several studies over the past few decades have recognized the need for advanced propulsion to explore the solar system. As early as the 1960s, Werner Von Braun and others recognized the need for a nuclear rocket for sending humans to Mars. The great distances, the intense radiation levels, and the physiological response to zero-gravity all supported the concept of using a nuclear rocket to decrease mission time. These same needs have been recognized in later studies, especially in the Space Exploration Initiative in 1989. One of the key questions that has arisen in later studies, however, is the ability to test a nuclear rocket engine in the current societal environment. Unlike the Rover/NERVA programs in the 1960s, the rocket exhaust can no longer be vented to the open atmosphere. As a consequence, previous studies have examined the feasibility of building a large-scale version of the Nuclear Furnace Scrubber that was demonstrated in 1971. We have investigated an alternative that would deposit the rocket exhaust along with any entrained fission products directly into the ground. The Subsurface Active Filtering of Exhaust, or SAFE, concept would allow variable sized engines to be tested for long times at a modest expense. A system overview, results of preliminary calculations, and cost estimates of proof of concept demonstrations are presented. The results indicate that a nuclear rocket could be tested at the Nevada Test Site for under $20 M

The need for safe nuclear energy

International Nuclear Information System (INIS)

Hawley, R.

1995-01-01

The Government's Nuclear Review has given the nuclear industry an opportunity to demonstrate the key role that it can play in developing the UK's energy supply. To fulfil its ultimate potential in both the UK and international markets, nuclear energy must be able to compete in an open market alongside UK fossil fuel based suppliers and with overseas power generators. There are huge potential export opportunities for the nuclear industry, but for the UK to be able to compete in these markets there must be a thriving nuclear sector at home. The Government is now in a position to determine the future development of the nuclear energy industry. A positive commitment to nuclear power will not only be good for the nuclear industry, it will be good for the nation as a whole. (Author)

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

Consensus together to jointly promote the safe and efficient development of China's Nuclear industry

International Nuclear Information System (INIS)

Lei Zengguang

2012-01-01

After the development of China's nuclear industry 56 years, and a certain ability to form a strategic advantage for sustainable development, laying a solid foundation for the development of the national nuclear energy. 2011 Japan's Fukushima Daiichi nuclear accident occurred seven. 2011 of the 'Economic and Social Development Twelfth Five Five Year plan' clearly stated: 'on the basis of ensuring efficient and safe development of nuclear power', the development of China's nuclear industry is facing unprecedented opportunities and challenges, requiring the nuclear industry and nuclear academia work together to jointly promote China's nuclear industry safe and efficient, development

Energy for a righteous world with a safe future

International Nuclear Information System (INIS)

Rose, D.J.

1977-01-01

We are in charge of our energy future and thus of the future itself. Energy decisions in the past were made on a too narrow and short-term basis, and we can daily clearly observe their inadequacy. The policy's quality does not correspond to the significance of the problem. A greater approximation leads to a consequent policy of the development of energy alternatives, of which some considerably deviate from those which would result at a closer look. This lecture deals with two aspects of the problem, both concern the future of nuclear energy. The first aspect treats extensively the energy possibilities available to the world in the future; the second deals more with the problem of the acceptibility of nuclear energy, reprocessing of nuclear fuels, the relationship to atomic armament and the thus involved problems. (orig.) [de

Can shale safely host US nuclear waste?

Science.gov (United States)

Neuzil, C.E.

2013-01-01

"Even as cleanup efforts after Japan’s Fukushima disaster offer a stark reminder of the spent nuclear fuel (SNF) stored at nuclear plants worldwide, the decision in 2009 to scrap Yucca Mountain as a permanent disposal site has dimmed hope for a repository for SNF and other high-level nuclear waste (HLW) in the United States anytime soon. About 70,000 metric tons of SNF are now in pool or dry cask storage at 75 sites across the United States [Government Accountability Office, 2012], and uncertainty about its fate is hobbling future development of nuclear power, increasing costs for utilities, and creating a liability for American taxpayers [Blue Ribbon Commission on America’s Nuclear Future, 2012].However, abandoning Yucca Mountain could also result in broadening geologic options for hosting America’s nuclear waste. Shales and other argillaceous formations (mudrocks, clays, and similar clay-rich media) have been absent from the U.S. repository program. In contrast, France, Switzerland, and Belgium are now planning repositories in argillaceous formations after extensive research in underground laboratories on the safety and feasibility of such an approach [Blue Ribbon Commission on America’s Nuclear Future, 2012; Nationale Genossenschaft für die Lagerung radioaktiver Abfälle (NAGRA), 2010; Organisme national des déchets radioactifs et des matières fissiles enrichies, 2011]. Other nations, notably Japan, Canada, and the United Kingdom, are studying argillaceous formations or may consider them in their siting programs [Japan Atomic Energy Agency, 2012; Nuclear Waste Management Organization (NWMO), (2011a); Powell et al., 2010]."

Super-compactor and grouting. Efficient and safe treatment of nuclear waste

International Nuclear Information System (INIS)

Li, Hongyou; Starke, Holger; Muetzel, Wolfgang; Winter, Marc

2014-01-01

The conditioning and volume reduction of nuclear waste are increasingly important factors throughout the world. Efficient and safe treatment of nuclear waste therefore plays a decisive role. Babcock Noell designed, manufactured and supplied a complete waste treatment facility for conditioning of the solid radioactive waste of a nuclear power plant to China. This facility consists of a Sorting Station, a Super-Compactor, a Grouting Unit with Capping Device and other auxiliary equipment which is described in more detail in the following article. This article gives an overview of the efficient and safe treatment of nuclear waste. Babcock Noell is a subsidiary of the Bilfinger Power Systems and has 40 years of experience in the field of design, engineering, construction, static and dynamic calculations, manufacturing, installation, commissioning, as well as in the service and operation of a wide variety of nuclear components and facilities worldwide.

Towards a new world: The contributions of nuclear energy to a sustainable future

International Nuclear Information System (INIS)

Duffey, R. B.; Miller, A. I.; Fehrenbach, P. J.; Kuran, S.; Tregunno, D.; Suppiah, S.

2007-01-01

Over the last few years, the world has seen growing concern about the sustainability of the Planet when supplying increasing energy use. The major issues are: increased energy prices in the world markets; growing energy demand in emerging economies; security and stability of oil and gas supply; potentially adverse climate change due to carbon-based emissions; and the need to deploy economic, sustainable and reliable alternates. Large undefined 'wedges' of alternate energy technologies are needed. In light of these major difficulties, there is renewed interest and need for a greater role for nuclear energy as a safe, sustainable and economic energy contributor. The shift has been, from being viewed by some as politically discounted, to being accepted as absolutely globally essential. We have carefully considered, and systematically, extensively and technically analyzed the contributions that nuclear energy can and should make to a globally sustainable energy future. These include restraining emissions, providing safe and secure power, operating synergistically with other sources, and being both socially and fiscally attractive. Therefore, we quantify in this paper the major contributions: a) The reduction in climate change potential and the global impact of future nuclear energy deployment through emissions reduction, using established analysis tools which varying the plausible future penetration and scale of nuclear energy. b) The minimization of economic costs and the maximization of global benefits, including investment requirements, carbon price implications, competitive market penetration, and effect of variable daily pricing. c) The introduction of fuel switching, including base-load nuclear energy synergistically enabling both hydrogen production and the introduction of significant wind power. d) The management and reduction of waste streams, utilizing intelligent designs and fuel cycles that optimize fuel resource use and minimize emissions, waste disposal

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.

The United States Naval Nuclear Propulsion Program - Over 151 Million Miles Safely Steamed on Nuclear Power

Energy Technology Data Exchange (ETDEWEB)

None, None

2015-03-01

NNSA’s third mission pillar is supporting the U.S. Navy’s ability to protect and defend American interests across the globe. The Naval Reactors Program remains at the forefront of technological developments in naval nuclear propulsion and ensures a commanding edge in warfighting capabilities by advancing new technologies and improvements in naval reactor performance and reliability. In 2015, the Naval Nuclear Propulsion Program pioneered advances in nuclear reactor and warship design – such as increasing reactor lifetimes, improving submarine operational effectiveness, and reducing propulsion plant crewing. The Naval Reactors Program continued its record of operational excellence by providing the technical expertise required to resolve emergent issues in the Nation’s nuclear-powered fleet, enabling the Fleet to safely steam more than two million miles. Naval Reactors safely maintains, operates, and oversees the reactors on the Navy’s 82 nuclear-powered warships, constituting more than 45 percent of the Navy’s major combatants.

Safety goals for future nuclear power plants

International Nuclear Information System (INIS)

Todreas, Neil E.

2001-01-01

This talk presents technology goals developed for Generation IV nuclear energy systems that can be made available to the market by 2030 or earlier. These goals are defined in the broad areas of sustainability, safety and reliability, and economics. Sustainability goals focus on fuel utilization, waste management, and proliferation resistance. Safety and reliability goals focus on safe and reliable operation, investment protection, and essentially eliminating the need for emergency response. Economics goals focus on competitive life cycle and energy production costs and financial risk. Future reactors fall in three categories - those which are: Certified or derivatives; Designed to a reasonable extent and based on available technology; In conceptual form only with potential to most fully satisfy the GENIV goals

Nuclear technology for a sustainable future

International Nuclear Information System (INIS)

2012-06-01

The IAEA helps its Member States to use nuclear technology for a broad range of applications, from generating electricity to increasing food production, from fighting cancer to managing fresh water resources and protecting the world's seas and oceans. Despite the Fukushima Daiichi accident in March 2011, nuclear power will remain an important option for many countries. Use of nuclear power will continue to grow in the next few decades, although growth will be slower than was anticipated before the accident. The factors contributing to the continuing interest in nuclear power include increasing global demand for energy, as well as concerns about climate change, volatile fossil fuel prices and security of energy supply. It will be difficult for the world to achieve the twin goals of ensuring sustainable energy supplies and curbing greenhouse gases without nuclear power. It is up to each country to choose its optimal energy mix. The IAEA helps countries which opt for nuclear power to use it safely and securely. Every day, millions of people throughout the world benefit from the use of nuclear technology. The IAEA helps to make these benefits available to developing countries through its extensive Technical Cooperation programme. For instance, we provide assistance in areas such as human health (through our Programme of Action for Cancer Therapy), animal health (we were active partners in the successful global campaign to eradicate the deadly cattle disease rinderpest), food, water and the environment. The IAEA contributes to the development of global policies to address the energy, food, water and environmental challenges the world faces. We look forward to helping to make Rio+20 a success. This brochure provides an overview of the many ways in which nuclear technology is contributing to building the future we want.

The future of nuclear power worldwide and the role of the global nuclear energy partnership

International Nuclear Information System (INIS)

Spurgeon, D.R.

2008-01-01

This presentation is entitled, 'The Future of Nuclear Power Worldwide and the Role of the Global Nuclear Energy Partnership', and the core message in one sentence is: When we look at the challenges of meeting our growing energy demands, providing for energy security and reducing greenhouse gas emissions, we must conclude that nuclear power has to play a significant and growing role in meeting these challenges. Similarly, the mission of the Global Nuclear Energy Partnership is to foster the safe and secure worldwide expansion of nuclear energy. GNEP comes at a crucial time in the burgeoning expansion of nuclear power. It is the only comprehensive proposal to close the nuclear fuel cycle in the United States, and engage the international community to minimize proliferation risks as well as provide and benefit from cooperation in policy formation, technical support, and technology and infrastructure development. Nuclear power's poised renaissance is encouraging, but it will require public support, expanded R and D activities and facilities, and increases in human capital needed for wide-scale construction and operation of new nuclear plants. Despite recent political currents, Germany can, too, become a part of this renaissance and become a full partner in the global partnership that shares a common vision for nuclear power's expansion. (orig.)

Management of nuclear power plants for safe operation

International Nuclear Information System (INIS)

1984-01-01

This Guide identifies the main objectives and responsibilities of management with respect to safe operation of nuclear power plants. The Guide discusses the factors to be considered in structuring the operating organization to meet these objectives, to establish the management programmes that assure the safety tasks are performed, and to see that the services and facilities needed to accomplish the tasks are available. The Guide is primarily addressed to safety matters directly related to the operating phase. It assumes, in other words, that the safety aspects of siting, design, manufacturing and construction have been resolved. However, it also covers the interrelationships between operations and design, construction and commissioning, including the involvement of the operating organization in appropriate reviews of safety issues with reference to the future operating phase. The Guide is mainly restricted to matters of principle in relation to management-level decision making aimed at establishing safety policies. It is therefore not suitable for implementing such policies at the operational level. The IAEA Codes of Practice and Safety Guides provide detailed guidance for the latter purpose in those areas considered appropriate

A nuclear waste deposit in space - the ultimate solution for low-cost and safe disposal

International Nuclear Information System (INIS)

Ruppe, H.O.; Hayn, D.; Braitinger, M.; Schmucker, R.H.

1980-01-01

The disposal of nuclear high-active waste (HAW) is representative for the problem of burdening the environment with highly active or toxic waste products at present and in the future. Safe disposal methods on Earth are technically very difficult to achieve and the costs of establishment and maintenance of such plants are extremely high. Furthermore the emotionally based rejection by a wide sector of the population gives sufficient reason to look for new solutions. Here, space technology can offer a real alternative - a waste deposit in space. With the Space Transportation System, which shall soon be operative, and the resulting high flight frequencies it will be possible to transport all future HAW into space at economical casts. (orig.) [de

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

The paper presents an analysis of the future of nuclear energy at the European level taking into account the main factors which influence its development among which the most important are: - enlargement of EU to 30 member states with different energy structure; - the increase of energy consumption; - the constant increasing of external dependence for energy which is estimated at 70% in the next 20-30 years; - liberalisation of the energy sources and supply sector; - environmental concerns, including climate change. In the Green Paper, nuclear is grouped together with coal, oil, gas and renewables as 'less than perfect' energy options and together with coal it is classed as an 'undesirable' and referred to as a 'source of energy in doubt ' which is ' tainted by the original sin of dual usage (civil and military) in the fuel cycle'. The final conclusion is 'the future of nuclear energy in Europe is uncertain'. It depends on several factors beyond energy demand; including: a solution to the problems of managing nuclear waste, the economic viability of the new generation of power stations, the safety of reactors in Eastern Europe, in particular applicant countries and policies to combat global warming. The 'essential questions' for nuclear is 'How can the community develop fusion technology and reactors for the future, reinforce nuclear safety and find a solution to the problem of nuclear waste?' There are a number of very important factors that will influence the future of nuclear energy inside the European Union. The first and foremost of these is continuing the safe operation of the existing nuclear facilities. The second is the demand for energy, in particular electricity. The third is the nuclear sector's ability to meet a share of this demand in a competitive way. If the demand materialises, there are likely to be reactors available that can further improve nuclear competitiveness while maintaining its recent excellent safety record. It will be the market that

The IAEA, nuclear power and sustainable development. Maintaining and increasing the overall assets available to future generations

International Nuclear Information System (INIS)

2001-01-01

In the framework of one of the fundamental objectives of the IAEA mandate to enhance the contribution of nuclear technologies towards meeting the needs of Member States, the present status, all the aspects, and the future of nuclear power are reviewed. The development of nuclear power broadens the natural resource base usable for energy production, increases human and man-made capital, and when safely handled has little impact on ecosystems. This means that it could meet the central goal of sustainable development, considering that it covers maintaining or increasing the overall assets available to future generations, while minimizing consumption of finite resources and not exceeding the carrying capacities of ecosystems

The generation IV nuclear reactor systems - Energy of future

International Nuclear Information System (INIS)

Ohai, Dumitru; Jianu, Adrian

2006-01-01

Ten nations joined within the Generation IV International Forum (GIF), agreeing on a framework for international cooperation in research. Their goal is to develop future-generation nuclear energy systems that can be licensed, constructed, and operated in an economically competitive way while addressing the issues of safety, proliferation, and other public perception concerns. The objective is for the Gen IV systems to be available for deployment by 2030. Using more than 100 nuclear experts from its 10 member nations, the GIF has developed a Gen IV Technology Roadmap to guide the research and development of the world's most advanced, efficient and safe nuclear power systems. The Gen IV Technology Roadmap calls for extensive research and development of six different potential future reactor systems. These include water-cooled, gas-cooled, liquid metal-cooled and nonclassical systems. One or more of these reactor systems will provide the best combination of safety, reliability, efficiency and proliferation resistance at a competitive cost. The main goals for the Gen IV Nuclear Energy Systems are: - Provide sustainable energy generation that meets clean air objectives and promotes long-term availability of systems and effective fuel use for worldwide energy production; - Minimize and manage their nuclear waste and noticeably reduce the long-term stewardship burden in the future, improving the protection of public health and the environment; - Increase the assurance that these reactors are very unattractive and the least desirable route for diversion or theft of weapons-usable materials, and provide increased protection against acts of terrorism; - Have a clear life-cycle cost advantage over other energy sources; - Have a level of financial risk comparable to other energy projects; - Excel in safety and reliability; - Have a low likelihood and degree of reactor core damage. (authors)

Safe-geometry pneumatic nuclear fuel powder blender

International Nuclear Information System (INIS)

Lyon, W.L.

1980-01-01

A safe geometry nuclear fuel powder is claimed blender of a pneumatic type having a plurality of narrow flat-walled blending chambers or ''slab tanks'' extending radially outward from a pneumatic spouting tube having an inlet and an outlet at bottom and top, respectively, open to each slab tank or blending chamber and contained within a cylindrical cone-bottomed shell filled with neutron-absorbing material between the blending chambers

Method of safely operating nuclear reactor

International Nuclear Information System (INIS)

Ochiai, Kanehiro.

1976-01-01

Purpose: To provide a method of safely operating an nuclear reactor, comprising supporting a load applied to a reactor container partly with secondary container facilities thereby reducing the load borne by the reactor container when water is injected into the core to submerge the core in an emergency. Method: In a reactor emergency, water is injected into the reactor core thereby to submerge the core. Further, water is injected into a gap between the reactor container and the secondary container facilities. By the injection of water into the gap between the reactor container and the secondary container facilities a large apparent mass is applied to the reactor container, as a result of which the reactor container undergoes the same vibration as that of the secondary container facilities. Therefore, the load borne by the reactor container itself is reduced and stress at the bottom part of the reactor container is released. This permits the reactor to be operated more safely. (Moriyama, K.)

Law no. 111/1996 on the safe deployment of nuclear activities - A law central to the Romanian nuclear law system

International Nuclear Information System (INIS)

Chiripus, Vlad-Ionut

2004-01-01

Law no. 111/1996 on the safe deployment of nuclear activities was published in its original form in the Official Gazette of Romania, Part no. 267 of 29th October 1996. The complexity of this law prevents from performing a comprehensive analysis of the legal provisions thereof for which reason the author shall review only those aspects he consider to be relevant to the issues dealt with by this law. Furthermore, as the author intends his undertaking to be a comparative analysis of Law no. 111/1996 in its successive stages - from its issue till the present - he uses mostly the present tense even though the law has been amended and in some respects the changes are quite significant. The presentation contains the following three sections: 1. Passing of Law no. 111/1996 on the safe deployment of nuclear activities - a turning point in the development of the Romanian nuclear law; 2. The successive modifications of Law no. 111/1996 on safe deployment of nuclear activities; 3. Law no. 193/2003 for the modification and completion of Law no. 111/1996 on the safe deployment of nuclear activities - a key moment in the modernization of Romanian nuclear law and harmonization with the relevant international requirement. In conclusion, the issue of Law no. 111/1996 on safe deployment of nuclear activities represents a turning point in the development of Romanian nuclear law. From this moment on one may regard it as a modern area of the Romanian law, European in spirit. The pre-existent legal framework - namely the Law no. 61/1974 on the deployment of activities in the Romanian nuclear field - was no longer up to the existing standards and its replacement by a new, modern law, fully harmonized with the European and NATO accession requirements was a must. Such a new, European law was to fully guarantee the safe deployment of nuclear activities for exclusively peaceful purposes, so that the requirements regarding the nuclear safety, protection of professionally exposed personnel

50 years of nuclear energy - a glance at the past, a look into the future

International Nuclear Information System (INIS)

Lewiner, C.

1993-01-01

December 2nd 1942, when Fermi and his team in Chicago demonstrated the first controlled nuclear chain reaction, is associated with the birth of nuclear energy. The seminal contribution of pioneering European atomic and nuclear scientists, including a significant number of women, is noted, however. Currently, 14 countries rely on nuclear energy to meet more than 25% of their electricity needs and, of these 11 are European. In 50 years, the nuclear industry has achieved impressive results based on what is still a young technology. A better understanding of the safe operation of nuclear power plants has been gained from the accidents at Three Mile Island and Chernobyl. Chernobyl has shown that although nuclear energy is vital for Central and Eastern Europe, safety and international solidarity are essential for its development. Nuclear energy offers an alternative to the energy challenges of today's world. It provides a means of meeting growing demand while reducing CO 2 emissions, has demonstrated responsible and safe waste management and is competitive when fair comparisons are made with other energy sources. These features should lead to a prosperous future for nuclear energy, but only if greater public acceptance is achieved. For this, enhanced safety of operation and open, objective communication are key factors. (UK)

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

Nuclear hydrogen production and its safe handling

International Nuclear Information System (INIS)

Chung, Hongsuk; Paek, Seungwoo; Kim, Kwang-Rag; Ahn, Do-Hee; Lee, Minsoo; Chang, Jong Hwa

2003-01-01

An overview of the hydrogen related research presently undertaken at the Korea Atomic Energy Research Institute are presented. These encompass nuclear hydrogen production, hydrogen storage, and the safe handling of hydrogen, High temperature gas-cooled reactors can play a significant role, with respect to large-scale hydrogen production, if used as the provider of high temperature heat in fossil fuel conversion or thermochemical cycles. A variety of potential hydrogen production methods for high temperature gas-cooled reactors were analyzed. They are steam reforming of natural gas, thermochemical cycles, etc. The produced hydrogen should be stored safely. Titanium metal was tested primarily because its hydride has very low dissociation pressures at normal storage temperatures and a high capacity for hydrogen, it is easy to prepare and is non-reactive with air in the expected storage conditions. There could be a number of potential sources of hydrogen evolution risk in a nuclear hydrogen production facility. In order to reduce the deflagration detonation it is necessary to develop hydrogen control methods that are capable of dealing with the hydrogen release rate. A series of experiments were conducted to assess the catalytic recombination characteristics of hydrogen in an air stream using palladium catalysts. (author)

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

Inherent safe design of advanced high temperature reactors - concepts for future nuclear power plants

International Nuclear Information System (INIS)

Hodzic, A.; Kugeler, K.

1997-01-01

This paper discusses the applicable solutions for a commercial size High Temperature Reactor (HTR) with inherent safety features. It describes the possible realization using an advanced concept which combines newly proposed design characteristics with some well known and proven HTR inherent safety features. The use of the HTR technology offers the conceivably best solution to meet the legal criteria, recently stated in Germany, for the future reactor generation. Both systems, block and pebble bed ,reactor, could be under certain design conditions self regulating in terms of core nuclear heat, mechanical stability and the environmental transfer. 23 refs., 7 figs

Safe physical human robot interaction- past, present and future

International Nuclear Information System (INIS)

Pervez, Aslam; Ryu, Jeha

2008-01-01

When a robot physically interacts with a human user, the requirements should be drastically changed. The most important requirement is the safety of the human user in the sense that robot should not harm the human in any situation. During the last few years, research has been focused on various aspects of safe physical human robot interaction. This paper provides a review of the work on safe physical interaction of robotic systems sharing their workspace with human users (especially elderly people). Three distinct areas of research are identified: interaction safety assessment, interaction safety through design, and interaction safety through planning and control. The paper then highlights the current challenges and available technologies and points out future research directions for realization of a safe and dependable robotic system for human users

Nuclear power generation safe and competitive - now and in future

International Nuclear Information System (INIS)

Wolf-Dieter, Krebs; Hoffman, D.R.

2002-01-01

ENC brings together scientists, academics, chief executives and all the major players from both the European and world nuclear utilities, to debate on the nuclear energy from technical, commercial and political perspectives. The abstracts of presentation from this conference are proposed in this paper grouped in four main themes: innovative reactors and fuel cycle; waste management including partitioning and transmutation and ADS development; experimental, research reactors and neutron sources; operation, maintenance, inspection and thermal hydraulics. (A.L.B.)

Nuclear power generation safe and competitive - now and in future

Energy Technology Data Exchange (ETDEWEB)

Wolf-Dieter, Krebs [European Nuclear Society and Framatome ANP (Germany); Hoffman, D R [American Nuclear Society and Excel Services Corp. (United States)

2002-07-01

ENC brings together scientists, academics, chief executives and all the major players from both the European and world nuclear utilities, to debate on the nuclear energy from technical, commercial and political perspectives. The abstracts of presentation from this conference are proposed in this paper grouped in four main themes: innovative reactors and fuel cycle; waste management including partitioning and transmutation and ADS development; experimental, research reactors and neutron sources; operation, maintenance, inspection and thermal hydraulics. (A.L.B.)

Safe Operation of Nuclear Power Plants. Code of Practice and Technical Appendices

International Nuclear Information System (INIS)

1969-01-01

This book is in two parts. The first is a Code of Practice for the Safe Operation of Nuclear Power Plants and the second part is a compilation of technical appendices. Its object is to give information and illustrative examples that would be helpful in implementing the Code of Practice. This second part, although published under the same cover, is not part of the Code. Safe operation of a nuclear power plant postulates suitable siting and proper design, construction and management of the plant. Under the present Code of Practice for the Safe Operation of Nuclear Power Plants, those intending to operate the plant are recommended to prepare documentation which would deal with its operation and include safety analyses. The documentation in question would be reviewed by a regulatory body independent of the operating organization; operation would be authorized on the understanding that it would comply with limits and conditions designed to ensure safety. The Code may be subject to revision in the light of experience. The Appendices provide additional information together with some examples relating to certain topics dealt with in the Code; it must be emphasized that they are included as examples for information only and are not part of any recommendation. Purpose and scope: The recommendations in the Code are designed to protect the general public and the operating personnel from radiation hazards, and the Code forms part of the Agency's Safety Standards. The Code, which should be used in conjunction with the Agency's other Safety Standards, provides guidance and information to persons and authorities responsible for the operation of stationary nuclear power plants whose main function is the generation of thermal, mechanical or electrical power; it is not intended to apply to reactors used solely for experimental or research purposes. It sets forth minimum requirements which, it is believed, in the light of experience, must be met in order to achieve safe operation of a

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)

Russia-U.S. joint program on the safe management of nuclear materials

International Nuclear Information System (INIS)

Witmer, F.E.; Krumpe, P.F.; Carlson, D.D.

1998-06-01

The Russia-US joint program on the safe management of nuclear materials was initiated to address common technical issues confronting the US and Russia in the management of excess weapons grade nuclear materials. The program was initiated after the 1993 Tomsk-7 accident. This paper provides an update on program activities since 1996. The Fourth US Russia Nuclear Materials Safety Management Workshop was conducted in March 1997. In addition, a number of contracts with Russian Institutes have been placed by Lawrence Livermore National Laboratory (LLNL) and Sandia National Laboratories (SNL). These contracts support research related to the safe disposition of excess plutonium (Pu) and highly enriched uranium (HEU). Topics investigated by Russian scientists under contracts with SNL and LLNL include accident consequence studies, the safety of anion exchange processes, underground isolation of nuclear materials, and the development of materials for the immobilization of excess weapons Pu

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

Integrated approach to economical, reliable, safe nuclear power production

International Nuclear Information System (INIS)

1982-06-01

An Integrated Approach to Economical, Reliable, Safe Nuclear Power Production is the latest evolution of a concept which originated with the Defense-in-Depth philosophy of the nuclear industry. As Defense-in-Depth provided a framework for viewing physical barriers and equipment redundancy, the Integrated Approach gives a framework for viewing nuclear power production in terms of functions and institutions. In the Integrated Approach, four plant Goals are defined (Normal Operation, Core and Plant Protection, Containment Integrity and Emergency Preparedness) with the attendant Functional and Institutional Classifications that support them. The Integrated Approach provides a systematic perspective that combines the economic objective of reliable power production with the safety objective of consistent, controlled plant operation

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)

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

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.

An overview of future sustainable nuclear power reactors

Energy Technology Data Exchange (ETDEWEB)

Poullikkas, Andreas [Electricity Authority of Cyprus, P.O. Box 24506, 1399 Nicosia (Cyprus)

2013-07-01

In this paper an overview of the current and future nuclear power reactor technologies is carried out. In particular, the nuclear technology is described and the classification of the current and future nuclear reactors according to their generation is provided. The analysis has shown that generation II reactors currently in operation all around the world lack significantly in safety precautions and are prone to loss of coolant accident (LOCA). In contrast, generation III reactors, which are an evolution of generation II reactors, incorporate passive or inherent safety features that require no active controls or operational intervention to avoid accidents in the event of malfunction, and may rely on gravity, natural convection or resistance to high temperatures. Today, partly due to the high capital cost of large power reactors generating electricity and partly due to the consideration of public perception, there is a shift towards the development of smaller units. These may be built independently or as modules in a larger complex, with capacity added incrementally as required. Small reactors most importantly benefit from reduced capital costs, simpler units and the ability to produce power away from main grid systems. These factors combined with the ability of a nuclear power plant to use process heat for co-generation, make the small reactors an attractive option. Generally, modern small reactors for power generation are expected to have greater simplicity of design, economy of mass production and reduced installation costs. Many are also designed for a high level of passive or inherent safety in the event of malfunction. Generation III+ designs are generally extensions of the generation III concept, which include advanced passive safety features. These designs can maintain the safe state without the use of any active control components. Generation IV reactors, which are future designs that are currently under research and development, will tend to have closed

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

Bulgaria: act on the safe use of nuclear energy (as last amended on 29 december 2002)

International Nuclear Information System (INIS)

2003-01-01

This issue concerns the act on the Safe use of nuclear energy (as last amended on 29 december 2002) in Bulgaria. This act covers the activities associated with the State regulation of the Safe use of nuclear energy and ionizing radiations and with the safety of radioactive waste management and spent fuel management. it specifies the rights and duties of licenses in conducting those activities, to ensure nuclear safety and radiation protection. (N.C.)

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

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.)

Nuclear power: A look at the future. International Conference on Fifty Years of Nuclear Power: The Next Fifty Years, 27 June 2004, Moscow, Russia

International Nuclear Information System (INIS)

ElBaradei, M.

2004-01-01

This statement touches on a few aspects of the evolving global scenario for nuclear power - briefly reviewing the current picture, outlining a number of key issues, and discussing what the International Atomic Energy Agency is doing to ensure that nuclear power remains a safe, secure and viable option for supplying energy needs. Of the 442 nuclear plants currently operating, fewer than 10% are located in developing countries. Many industrialized nations generate substantial portions of their electricity from nuclear fission: including: France, at 78%; Belgium, at 55%; Germany, at 28%; Japan, at 25%; the United States, at 20%; and Russia, at 17%. By contrast, for large developing countries such as Brazil, India and China, the percentages are only 3.7%, 3.3% and 2.2%, respectively. Current expansion and growth prospects for nuclear power are centred in Asia. Although the focus of this international effort was on improving safety, the secondary benefit was a steady increase in nuclear plant availability and productivity. In 1990, nuclear plants on average were generating electricity 71% of the time. As of 2003, that figure stood at 84% - an improvement in productivity equal to adding more than 34 new 1000 megawatt nuclear plants - all at relatively minimal cost. Overall, the current picture remains mixed, and projections for the future of nuclear power vary widely depending on what assumptions are made. The IAEA's current 'low' (or conservative) projection - which assumes that today's nuclear plants will retire on schedule, and assumes no new construction beyond what is already firmly planned - would envision the total amount of nuclear electricity generated dropping off after about 2020. The IAEA 'high' projection, which includes additional scenarios for new nuclear plant construction, would envision nuclear power generating 70% more electricity in 2030 than at present, but still tapering off in its global share of electricity, due to even more rapid expansion in

The Sustainable Nuclear Future: Fission and Fusion E.M. Campbell Logos Technologies

Science.gov (United States)

Campbell, E. Michael

2010-02-01

Global industrialization, the concern over rising CO2 levels in the atmosphere and other negative environmental effects due to the burning of hydrocarbon fuels and the need to insulate the cost of energy from fuel price volatility have led to a renewed interest in nuclear power. Many of the plants under construction are similar to the existing light water reactors but incorporate modern engineering and enhanced safety features. These reactors, while mature, safe and reliable sources of electrical power have limited efficiency in converting fission power to useful work, require significant amounts of water, and must deal with the issues of nuclear waste (spent fuel), safety, and weapons proliferation. If nuclear power is to sustain its present share of the world's growing energy needs let alone displace carbon based fuels, more than 1000 reactors will be needed by mid century. For this to occur new reactors that are more efficient, versatile in their energy markets, require minimal or no water, produce less waste and more robust waste forms, are inherently safe and minimize proliferation concerns will be necessary. Graphite moderated, ceramic coated fuel, and He cooled designs are reactors that can satisfy these requirements. Along with other generation IV fast reactors that can further reduce the amounts of spent fuel and extend fuel resources, such a nuclear expansion is possible. Furthermore, facilities either in early operations or under construction should demonstrate the next step in fusion energy development in which energy gain is produced. This demonstration will catalyze fusion energy development and lead to the ultimate development of the next generation of nuclear reactors. In this presentation the role of advanced fission reactors and future fusion reactors in the expansion of nuclear power will be discussed including synergies with the existing worldwide nuclear fleet. )

Dynamic Response of AP1000 Nuclear Island Due to Safe Shutdown Earthquake Loading

Directory of Open Access Journals (Sweden)

Gan Buntara S.

2017-01-01

Full Text Available AP1000 is a standard nuclear power plant developed by Westinghouse and its partners by using an advanced passive safety feature. Among the five principle building structures, namely the nuclear island, turbine building, annex building, diesel generator building and radwaste building, the safety of the nuclear island building is the most concerned. This paper investigates the dynamic response of the nuclear island building of the AP1000 plant subjected to safe shutdown earthquake loadings. A finite element model for the building, which is assumed to be built in a hard-rock base, is developed and its dynamic response is computed with the aid of the commercial finite element package ANSYS. The dynamic characteristics, including the natural frequencies, the vibration modes, and the time histories for displacements, velocities, and accelerations of the building are obtained for two typical safe shutdown earthquakes, El Centro and Kobe earthquakes. The dynamic behavior of the building due to the earthquakes and its safety is examined and highlighted.

Potential of small nuclear reactors for future clean and safe energy sources

International Nuclear Information System (INIS)

Sekimoto, H.

1992-01-01

To cope with the various kinds of energy demands expected in the 21st century, it is necessary to explore the potential of small nuclear reactors and to find a way of promoting their introduction to society. The main goal of current research activities is 'the constitution of the self-consistent nuclear energy system'. These activities can be understood by realizing that the nuclear community is facing a turning point for its survival in the 21st century. Self-consistency can be manifested by investigating and developing the potential advantages of the nuclear fission reaction and lessening the potential disadvantages. The contributions in this volume discuss concepts of small reactors, applications of small reactors, and consistency with conventional energy supply systems

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)

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

Can nuclear waste be stored safely at Yucca mountain?

International Nuclear Information System (INIS)

Whipple, C.G.

1996-01-01

In 1987 the federal government narrowed to one its long-term options for disposing of nuclear waste: storing it permanently in a series of caverns excavated out of the rock deep below Yucca mountain in southern Nevada. Whether it makes sense at this time to dispose permanently of spent fuel and radioactive waste in a deep geologic repository is hotly disputed. But the Nuclear Waste Policy Act amendements of 1987 decree that waste be consolidated in Yucca Mountain if the mountain is found suitable. Meanwhile the spent fuel continues to pile up across the country, and 1998 looms, adding urgency to the question: What can science tell us about the ability of the mountain to store nuclear waste safely? This paper discusses this issue and describes how studies of the mountain's history and geology can contribute useful insights but not unequivocal conclusions

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)

Evolution and development of laws, regulations, criteria and human resources to ensure the safe decommissioning of nuclear facilities in Thailand

International Nuclear Information System (INIS)

Keinmeesuke, S.

2006-01-01

The Research Reactor, TRR-1 (renamed TRR-1/M1 after core replacement) in Thailand has been operated for more than 43 years. This ageing reactor will be facing shutdown in the near future. Laws and Regulations have been continually developed to assure the safe operation of nuclear facilities, particularly of the research reactor, and to ensure the safe decommissioning of the reactor after its operational life. However, the Thai nuclear legislation is still not applicable to a number of areas. Office of Atoms for Peace is working toward development of a new consolidated Act. In addition, the licensing steps for modification and decommissioning are added to the new Ministerial Regulation and to the new guidance documents on the licensing process for research reactors. Regulations, guidance and criteria for approval of decommissioning are being developed using the IAEA Safety Standards Series as the main basis for drafting. Human resource development is considered as one of the key important factor to ensure safe decommissioning of the installation. Staffing and training of the operating organization and the regulatory body personnel have been addressed to ensure the achievement of competency level. Simple methods and technologies are the best means for implementation while learning from experience of others will help and support us in our attempt to be the 'second First'. IAEA advice and assistance on the decommissioning of nuclear facilities in countries with limited resources is desirable. (author)

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)

Guidance notes : safe practice for the use of nuclear density meters

International Nuclear Information System (INIS)

2000-06-01

These 'Guidance notes' have been written to provide information for owners and users on the safe care and use of instruments containing radioactive materials used for the measurement of moisture content and/or density of materials. They give practical guidance on compliance with the requirements of radiation protection legislation and the 'Code of safe practice for the use of nuclear density meters, NRL C15'. Some of these instruments have been known as 'soil moisture gauges' and others as 'nuclear density meters' or just 'NDMs'. For simplicity, these 'Guidance notes' will follow industry terminology and use the term 'nuclear density meter'. Some parts of these 'Guidance notes' and of the 'Code, NRL C15' are relevant for users of asphalt gauges containing radioactive sources. These are normally laboratory bench instruments, and are not portable field instruments. Nevertheless, the radioactive sources used are similar to those used for moisture measurement and the safety implications are similar. The units of measurement of radioactivity and radiation dose are discussed in Appendix 1. Appendix 2 contains consent application forms while sample transport forms can be found in Appendix 3. (author). 10 refs

Proceedings of the conference on the Safety in Reactor Operations - TopSafe 2012 Transactions

International Nuclear Information System (INIS)

2012-01-01

TopSafe 2012 provides a forum for addressing the current status and future perspectives with regards to safety at nuclear installations worldwide. In view of the on-going discussions and initiatives that have been taken over the last months the European Nuclear Society (ENS) decided organising this edition of this topical conference from 22 to 26 April 2012 in Helsinki, Finland. TopSafe 2012 focus on three main subjects: Safety and related analyses in operating nuclear power plants and other nuclear installations; Safety and Risk Assessment; Trends in nuclear safety for existing and future installations. The conference is directed at a broad range of experts in the area of nuclear safety, including professionals from the different disciplines involved in the safety of nuclear power plants, fuel cycle installations and research reactors. It is aimed at professionals coming from the research organisations, universities, vendors, operators, regulatory bodies as well as policy makers. Top level representatives of the Countries that are constructing new nuclear power plants are invited. Regulators of all individual Countries with nuclear programme are expected to contribute the Conference. (authors)

Main corrective measures in an early phase of nuclear power plants’ preparation for safe long term operation

Energy Technology Data Exchange (ETDEWEB)

Krivanek, Robert, E-mail: r.krivanek@iaea.org [International Atomic Energy Agency (IAEA), Department of Nuclear Safety and Security, Operational Safety Section, Vienna 1400 (Austria); Fiedler, Jan, E-mail: fiedler@fme.vutbr.cz [University of Technology Brno, Faculty of Mechanical Engineering, Energy Institute, Technická 2896/2, 616 69 Brno (Czech Republic)

2017-05-15

Highlights: • Results of SALTO missions provide the most important issues for safe long term operation (LTO) of nuclear power plants. • The most important technical corrective measures in an early phase of preparation for safe LTO are described. • Their satisfactory resolution creates a basis for further activities to demonstrate preparedness for safe LTO. - Abstract: This paper presents the analysis of main technical deficiencies of nuclear power plants (NPPs) in preparedness for safe long term operation (LTO) and the main corrective measures in an early phase of preparation for safe LTO of NPPs. It focuses on technical aspects connected with management of physical ageing of NPP structures, systems and components (SSCs). It uses as a basis results of IAEA SALTO missions performed between 2005 and 2016 (see also paper NED8805 in Nuclear Engineering and Design in May 2016) and the personal experiences of the authors with preparation of NPPs for safe LTO. This paper does not discuss other important aspects of safe LTO of NPPs, e.g. national nuclear energy policies, compliance of NPPs with the latest international requirements on design, obsolescence, environmental impact and economic aspects of LTO. Chapter 1 provides a brief introduction of the current status of the NPP’ fleet in connection with LTO. Chapter 2 provides an overview of SALTO peer review service results with a focus on deficiencies related to physical ageing of safety SSCs and a demonstration that SSCs will perform their safety function during the intended period of LTO. Chapter 3 discusses the main corrective measures which NPPs typically face during the preparation for demonstration of safe LTO. Chapter 4 summarizes the current status of the NPP’ fleet in connection with LTO and outlines further steps needed in preparation for safe LTO.

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)

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)

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

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.

Nuclear Power: Africa and the Future

International Nuclear Information System (INIS)

Ibrahim, Y.M.; Hussein, A.S.

2008-01-01

Africa is a home to around 800 million people. The total population is expected to reach 1.3 billion by 2020. Efficient, clean energy forms are vital to Africa's sustainable development and fight against poverty. Nuclear power is a sustainable, clean, safe and economic way to met the African countries demand for electrical energy and water desalination As of 29 January 2007, there were 435 nuclear power plants in operation around the world. They total about 369 G We of generating capacity and supply about 16% of the world electricity. Of the 435 nuclear power plants in operation, just two are in Africa: Koeberg-1 and Koeberg-2 in South Africa. Both are 900 M We PWRs.There are also 28 new nuclear power plants under construction none in Africa. In this paper, varies factors , which support the attractiveness of nuclear power for African countries are identified and discussed

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)

Nuclear Energy: A Competitive and Safe Option, The EDF Experience

International Nuclear Information System (INIS)

Colas, F.

1998-01-01

Today, nuclear energy seems challenged by fossil energies, especially gas. However, the 1997's French government survey over energy options still places nuclear energy at the top of the list. The reasons why and how safe nuclear energy is still competitive are detailed in this paper. Most recent data from EDF's reactor will be discussed in terms of environmental and electricity production issues. The methods and management used to attain these results are explained for the different phases: design, construction, operation, and maintenance. The beneficial aspects over industrial development and local employment will be underlined. The influence of nuclear energy on EDF's financial results are shown, from past programme to today's operation. As most of french reactors are designed to adapt their output to the changes of load in the national grid, results are, as a conclusion, discussed in a small and medium electrical grid perspective. (author)

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.)

Regulations for the safe management of radioactive wastes and spent nuclear fuel

International Nuclear Information System (INIS)

Voica, Anca

2007-01-01

The paper presents the national, international and European regulations regarding radioactive waste management. ANDRAD is the national authority charged with nation wide coordination of safe management of spent fuel and radioactive waste including their final disposal. ANDRAD's main objectives are the following: - establishing the National Strategy concerning the safety management of radioactive waste and spent nuclear fuel; - establishing the national repositories for the final disposal of the spent nuclear fuel and radioactive waste; - developing the technical procedures and establishing norms for all stages of management of spent nuclear fuel and radioactive waste, including the disposal and the decommissioning of the nuclear and radiologic facilities

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.

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

The future of nuclear power

International Nuclear Information System (INIS)

Greenhalgh, G.

1988-01-01

The desire for safe and plentiful forms of energy led to the rapid development of the nuclear power industry in the years following the Second World War. Although initially embraced as the answer to the dwindling supply of non-renewable fuel resources, plans to expand nuclear power generation have met with growing public resistance as investigations point to the possible harmful effects of radiation, an unavoidable by-product of the process. This book presents the case for nuclear power in the light of the increasing amount of controversy surrounding the issue. Diverse and often contradicting nuclear policies in different countries are examined with reference to the political, historical and economic factors which account for these wide variations in public sentiment. A detailed analysis is given of the growth of world energy demand, energy vs economic growth and alternative energies, and particular emphasis is given to aspects of the environment, pollution, safety, health hazards and the measurement and control of radiation. The role of public attitudes and awareness also receives special attention: a fuller and less emotional public understanding of nuclear power is necessary to assess the various benefits and risks which accompany this important source of energy

International conference on lessons learned from the decommissioning of nuclear facilities and the safe termination of nuclear activities. Contributed papers

International Nuclear Information System (INIS)

2006-12-01

The International Atomic Energy Agency (IAEA), in cooperation with the European Commission (EC), Nuclear Energy Agency to the Organisation for Economic Co-operation and Development (OECD/NEA), and the World Nuclear Association (WNA), organized an International Conference on Lessons Learned from the Decommissioning of Nuclear Facilities and the Safe Termination of Nuclear Activities from 11 to 15 December 2006 in Athens, Greece. This Book of Contributed Papers contains technical papers and posters contributed by experts from operating organisations, regulatory bodies, technical support organisations, and other institutions on issues falling within the scope of the Conference. The following main topics were covered: Evolution of national and international policies and criteria for the safe and efficient decommissioning of nuclear facilities and safe termination of nuclear activities; Review of lessons learned from ongoing or completed activities associated with decommissioning; Improvement of safety and efficiency through the use of new and innovative technologies; Practical aspects in the management of material, waste and sites resulting from decommissioning, including the management of waste in the absence of repositories and waste acceptance requirements; Procedures for demonstrating compliance with clearance criteria; Experience from radiological assessments associated with decommissioning; Involvement of the local communities and the impact that decommissioning activities has on them. The presented papers and posters were reviewed and accepted following the guidelines established by the Conference Programme Committee for consideration at the Conference. The material compiled in this Book of Contributed Papers has not undergone rigorous editing by the editorial staff of the IAEA. However, certain modifications were made: a unified format was adopted for all papers; and minor corrections were made in the text where required. Each paper and poster has been indexed

International conference on lessons learned from the decommissioning of nuclear facilities and the safe termination of nuclear activities. Contributed papers

Energy Technology Data Exchange (ETDEWEB)

NONE

2006-12-15

The International Atomic Energy Agency (IAEA), in cooperation with the European Commission (EC), Nuclear Energy Agency to the Organisation for Economic Co-operation and Development (OECD/NEA), and the World Nuclear Association (WNA), organized an International Conference on Lessons Learned from the Decommissioning of Nuclear Facilities and the Safe Termination of Nuclear Activities from 11 to 15 December 2006 in Athens, Greece. This Book of Contributed Papers contains technical papers and posters contributed by experts from operating organisations, regulatory bodies, technical support organisations, and other institutions on issues falling within the scope of the Conference. The following main topics were covered: Evolution of national and international policies and criteria for the safe and efficient decommissioning of nuclear facilities and safe termination of nuclear activities; Review of lessons learned from ongoing or completed activities associated with decommissioning; Improvement of safety and efficiency through the use of new and innovative technologies; Practical aspects in the management of material, waste and sites resulting from decommissioning, including the management of waste in the absence of repositories and waste acceptance requirements; Procedures for demonstrating compliance with clearance criteria; Experience from radiological assessments associated with decommissioning; Involvement of the local communities and the impact that decommissioning activities has on them. The presented papers and posters were reviewed and accepted following the guidelines established by the Conference Programme Committee for consideration at the Conference. The material compiled in this Book of Contributed Papers has not undergone rigorous editing by the editorial staff of the IAEA. However, certain modifications were made: a unified format was adopted for all papers; and minor corrections were made in the text where required. Each paper and poster has been indexed

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

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)

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)

Licensing of nuclear facilities according to the Bulgarian Act on the Safe Use of Nuclear Energy

International Nuclear Information System (INIS)

Stoyanova-Todorova, P.

2004-01-01

The new Bulgarian Act on the Safe Use of Nuclear Energy /Nuclear Act/ has replaced the former Act on the Use of Nuclear Energy for Peaceful Purposes. The new Nuclear Act covers the activities involving nuclear energy and sources of ionising radiation mainly by establishing a consistent licensing regime. About 13 regulations specifying the provisions of the Nuclear Act have been recently adopted by the Council of Ministers, the most important one being the Regulation on the Procedure for Issue of Licenses and Permits for the Safe Use of Nuclear Energy. The Chairman of the Nuclear Regulatory Agency (NRA) is authorised by the law to consider any application for issue of a license or a permit under the Bulgarian Nuclear Act. The procedure starts with an application, filed with the NRA, and continues about nine months. The final decision could be for issuing of the license or permit or a refusal for issuing the claimed document. The denial must be grounded and is subject to appeal. The Nuclear Act prescribes the conditions for issuing of two types of licensing documents (authorisations): licenses and permits. From a legal point of view the two types of licensing documents have one and the same nature - they are individual administrative acts according to the Bulgarian law. That is why there is no difference between them in terms of the issuing procedure. The difference between licenses and permits could be explained as follows: while a license is issued for reiterated activities, a permit is issued for non-reoccurring activities, this division being a specific feature of the Bulgarian Nuclear Act. In the field of nuclear facilities usage only one type of license is provided for by the Nuclear Act - a license for operation of a nuclear facility unit. For the rest of the activities issuing of permits is envisaged, those permits being in compliance with the main stages of the authorisation process formulated by the IAEA, following the step-by-step approach - siting, design

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)

Responsibility for safe management of spent nuclear fuel - a legal perspective; Ansvarstagande i kaernbraenslecykelns slutsteg - ett raettsligt perspektiv

Energy Technology Data Exchange (ETDEWEB)

Cramer, Per; Stendahl, Sara; Erhag, Thomas (Dept. of Law, Univ. of Goeteborg, Goeteborg (Sweden))

2010-10-15

This study analyzes, based on Section 10 of the Swedish Nuclear Activities Act, the legal structures surrounding the issue of responsibility for safe management and final disposal of spent nuclear fuel. The purpose is to shed light on the legal aspects that must be considered in the future licensing process and thereby contribute to a better understanding of the importance of the legal structures for the decisions about final disposal that lie ahead of us. The overall question is thus future-oriented: What interpretation is it reasonable to assume will be given to the requirements of the Nuclear Activities Act on 'safe management and final disposal' of the spent nuclear fuel in the coming licensing process? The approach we take to this question is in part traditionally jurisprudential and based on a study of the travaux preparatoires (drafting history) of the Act and other legal sources. In addition, a study of legal practice is included where previous licensing processes are studied. One conclusion that can be drawn from this study is that the Swedish regulation of nuclear activities creates a legal basis for exacting far-reaching industrial responsibility from the reactor owners, but also for an extensive and interventionist state influence over the activities. Of central importance in the model for division of responsibility that was established via the Nuclear Activities Act in 1984 is the RDandD programme (Research, Development and Demonstration). The RDandD programme reflects the political will that the requirement of 'safe management' should be met through research. The statutory forms for how the programme is to be organized reflect an ambition to place great responsibility for execution and financing on the industry, but also, and not least, an ambition to retain instruments of control and influence in the hands of the state. It is difficult to judge whether the hopes of the 1980s regarding the influence of the public over this process

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

Constructing a Model for Safe Nuclear Energy. General Conference Event to Focus on Innovative Cross-cutting Approach to Nuclear Safety

International Nuclear Information System (INIS)

Verlini, Giovanni

2011-01-01

Two innovative IAEA Extra-Budgetary Programmes, supporting safe nuclear energy in Bulgaria and Romania, passed their one-year milestone in 2010. Funded by the Norwegian government, these programmes are unique in that they cover separate but cross-cutting issues related to nuclear safety, including safety culture, safety assessments, risk management and resource management.

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)

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

Progress in high energy physics and nuclear safety : Proceedings of the NATO Advanced Research Workshop on Safe Nuclear Energy

CERN Document Server

Polański, Aleksander; Begun, Viktor

2009-01-01

The book contains recent results on the progress in high-energy physics, accelerator, detection and nuclear technologies, as well as nuclear safety in high-energy experimentation and in nuclear industry, covered by leading experts in the field. The forthcoming experiments at the Large Hadron Collider (LHC) at CERN and cosmic-ray experiments are highlighted. Most of the current high-energy experiments and their physical motivation are analyzed. Various nuclear energy safety aspects, including progress in the production of new radiation-resistant materials, new and safe nuclear reactor designs, such as the slowly-burning reactor, as well as the use of coal-nuclear symbiotic methods of energy production can be found in the book.

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

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

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'

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.)

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

Overview of the international legal framework governing the safe and peaceful uses of nuclear energy - Some practical steps

International Nuclear Information System (INIS)

Rautenbach, J.; Tonhauser, W.; Wetherall, A.

2006-01-01

The accident on 26 April 1986 in unit 4 of the Chernobyl nuclear power plant in the former Ukrainian Republic of the Union of Soviet Socialist Republics, near the present borders of Belarus, the Russian Federation and Ukraine, was categorised at the time as 'the most devastating accident in the history of nuclear power'. Two decades on, the assessment of the health, environmental and socio-economic impacts of the accident still continues, with the aim of providing definitive and authoritative answers. In addition, from a legal perspective the accident underlined some significant deficiencies and gaps in the international legal and regulatory norms that had been established to govern the safe and peaceful uses of nuclear energy. At the same time, it stressed the need for a collective international focus on [nuclear] safety and, in its wake, prompted a call for the creation of an international regime for the safe development of [nuclear energy] under the auspices of the IAEA. For all its devastating consequences, the accident was in fact a wake-up call for the 'international nuclear community' and led to a new era in international nuclear cooperation, involving states which had so far been removed both geographically and technologically from nuclear power. In its aftermath, the international nuclear community, in an attempt to allay concerns of the public and political world over the use of the atom as a viable energy source, sought to rebuild confidence in the safety of nuclear energy, primarily through the IAEA, by urgently addressing those main deficiencies in the existing international legal framework that had been exemplified by the accident. As much as has already been written on the substantive provisions and negotiating history of the different international instruments that compromise this legal framework and that were developed under the auspices of the IAEA in the two decades since the Chernobyl accident, this paper only briefly describes their substance

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)

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.)

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

Development of nuclear fuel cycle technologies - bases of long-term provision of fuel and environmental safety of nuclear power

International Nuclear Information System (INIS)

Solonin, M.I.; Polyakov, A.S.; Zakharkin, B.S.; Smelov, V.S.; Nenarokomov, E.A.; Mukhin, I.V.

2000-01-01

To-day nuclear power is one of the options, however, to-morrow it may become the main source of the energy, thus, providing for the stable economic development for the long time to come. The availability of the large-scale nuclear power in the foreseeable future is governed by not only the safe operation of nuclear power plants (NPP) but also by the environmentally safe management of spent nuclear fuel, radioactive waste conditioning and long-term storage. More emphasis is to be placed to the closing of the fuel cycle in view of substantial quantities of spent nuclear fuel arisings. The once-through fuel cycle that is cost effective at the moment cannot be considered to be environmentally safe even for the middle term since the substantial build-up of spent nuclear fuel containing thousands of tons Pu will require the resolution of the safe management problem in the nearest future and is absolutely unjustified in terms of moral ethics as a transfer of the responsibility to future generations. The minimization of radioactive waste arisings and its radioactivity is only feasible with the closed fuel cycle put into practice and some actinides and long-lived fission radionuclides burnt out. The key issues in providing the environmentally safe fuel cycle are efficient processes of producing fuel for NPP, radionuclide after-burning included, a long-term spent nuclear fuel storage and reprocessing as well as radioactive waste management. The paper deals with the problems inherent in producing fuel for NPP with a view for the closed fuel cycle. Also discussed are options of the fuel cycle, its effectiveness and environmental safety with improvements in technologies of spent nuclear fuel reprocessing and long-lived radionuclide partitioning. (authors)

Development of nuclear fuel cycle technologies - bases of long-term provision of fuel and environmental safety of nuclear power

Energy Technology Data Exchange (ETDEWEB)

Solonin, M I; Polyakov, A S; Zakharkin, B S; Smelov, V S; Nenarokomov, E A; Mukhin, I V [SSC, RF, A.A. Bochvar ALL-Russia Research Institute of Inorganic Materials, Moscow (Russian Federation)

2000-07-01

To-day nuclear power is one of the options, however, to-morrow it may become the main source of the energy, thus, providing for the stable economic development for the long time to come. The availability of the large-scale nuclear power in the foreseeable future is governed by not only the safe operation of nuclear power plants (NPP) but also by the environmentally safe management of spent nuclear fuel, radioactive waste conditioning and long-term storage. More emphasis is to be placed to the closing of the fuel cycle in view of substantial quantities of spent nuclear fuel arisings. The once-through fuel cycle that is cost effective at the moment cannot be considered to be environmentally safe even for the middle term since the substantial build-up of spent nuclear fuel containing thousands of tons Pu will require the resolution of the safe management problem in the nearest future and is absolutely unjustified in terms of moral ethics as a transfer of the responsibility to future generations. The minimization of radioactive waste arisings and its radioactivity is only feasible with the closed fuel cycle put into practice and some actinides and long-lived fission radionuclides burnt out. The key issues in providing the environmentally safe fuel cycle are efficient processes of producing fuel for NPP, radionuclide after-burning included, a long-term spent nuclear fuel storage and reprocessing as well as radioactive waste management. The paper deals with the problems inherent in producing fuel for NPP with a view for the closed fuel cycle. Also discussed are options of the fuel cycle, its effectiveness and environmental safety with improvements in technologies of spent nuclear fuel reprocessing and long-lived radionuclide partitioning. (authors)

Nuclear design of ISER [intrinsically safe and economical reactor

International Nuclear Information System (INIS)

Yamano, Naoki; Yokoyama, Takashi

1985-01-01

A preliminary core design work on ISER (Intrinsically Safe and Economical Reactor) based on the concept of the PIUS reactor of ASEA-ATOM is performed in order to grasp the characteristics of the reactor core and the fuel management scheme. Certain relations between the fuel specifications and the cycle length are estimated. Items of improvement on the ISER core characteristics and problems to be considered on the nuclear design are presented. Experiments to be considered are also discussed in conjunction with the development of experimental reactor (ISER-E)

Feasibility of safe terminal disposal of spent nuclear fuel

International Nuclear Information System (INIS)

Nilsson, B.; Papp, T.

1980-01-01

The results of the KBS study indicate that safe terminal storage of spent nuclear fuel in crystalline rock is feasible with the technology available today and at a safety level that is well within the limitations recommended by the ICRP. This statement is not only based on the fact that the doses calculated in the KBS study were acceptably low, but even more on the freedom to choose the dimensions of the engineered barriers as well as depth of the repository and to some degree the quality of the host rock

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)

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)

Estimation of residual stress distribution for pressurizer nozzle of Kori nuclear power plant considering safe end

Energy Technology Data Exchange (ETDEWEB)

Song, Tae Kwang; Bae, Hong Yeol; Chun, Yun Bae; Oh, Chang Young; Kim, Yun Jae [Korea University, Seoul (Korea, Republic of); Lee, Kyoung Soo; Park, Chi Yong [Korea Electric Power Research Institute, Daejeon (Korea, Republic of)

2008-08-15

In nuclear power plants, ferritic low alloy steel nozzle was connected with austenitic stainless steel piping system through alloy 82/182 butt weld. Accurate estimation of residual stress for weldment is important in the sense that alloy 82/182 is susceptible to stress corrosion cracking. There are many results which predict residual stress distribution for alloy 82/182 weld between nozzle and pipe. However, nozzle and piping system usually connected through safe end which has short length. In this paper, residual stress distribution for pressurizer nozzle of Kori nuclear power plant was predicted using FE analysis, which considered safe end. As a result, existing residual stress profile was redistributed and residual stress of inner surface was decreased specially. It means that safe end should be considered to reduce conservatism when estimating the piping system.

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

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

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

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)

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)

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)/

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

Comparative analysis of coolants for FBR of future nuclear power

International Nuclear Information System (INIS)

Toshinsky, G.I.; Grigoryev, O.G.; Pylchenkov, E.H.; Skorikov, D.E.; Komkova, O.I.

2001-01-01

Selection of a fast reactor (FR) coolant for future nuclear reactors is a complex task that has not a single solution. Safety requirements are expected to grow in the future. The requirements to FR are reconsidered. Gradual transition from the FR as a builder up of plutonium to the FR as an economically effective energy source, is taking place. Among all types of coolants viable for FR, LMC (light molten salt coolants) cover the most complete range of requirements to advanced reactors and have a complete database. Sodium and lead-bismuth coolant (LBC) are selected because there is a complete package of technologies for their handling. Heavy liquid metal coolant (HLMC), being at a disadvantage of heat transfer rate in relation to sodium, make it possible to give the inherent safety properties to the reactor and, as a result, to simplify essentially the reactor design and its safety systems. This results in capital and costs reduction. Neutronic characteristics of HLMC cooled reactors make possible to transmute their own minor actinides (MA) safely, and LBC cooled reactors are able to transmute LWR'MA with high safety characteristics. Basing on the comparison carried out, it can be concluded, that both LBC and sodium are perspective coolants for future FR

Comparative analysis of coolants for FBR of future nuclear power

Energy Technology Data Exchange (ETDEWEB)

Toshinsky, G.I.; Grigoryev, O.G.; Pylchenkov, E.H.; Skorikov, D.E.; Komkova, O.I. [State Scientific Center of Russian Federation, Institute for Physics and Power Engineering named after Academician A.I. Leipusky, Kaluga Region (Russian Federation)

2001-07-01

Selection of a fast reactor (FR) coolant for future nuclear reactors is a complex task that has not a single solution. Safety requirements are expected to grow in the future. The requirements to FR are reconsidered. Gradual transition from the FR as a builder up of plutonium to the FR as an economically effective energy source, is taking place. Among all types of coolants viable for FR, LMC (light molten salt coolants) cover the most complete range of requirements to advanced reactors and have a complete database. Sodium and lead-bismuth coolant (LBC) are selected because there is a complete package of technologies for their handling. Heavy liquid metal coolant (HLMC), being at a disadvantage of heat transfer rate in relation to sodium, make it possible to give the inherent safety properties to the reactor and, as a result, to simplify essentially the reactor design and its safety systems. This results in capital and costs reduction. Neutronic characteristics of HLMC cooled reactors make possible to transmute their own minor actinides (MA) safely, and LBC cooled reactors are able to transmute LWR'MA with high safety characteristics. Basing on the comparison carried out, it can be concluded, that both LBC and sodium are perspective coolants for future FR.

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

A selection of problems related to safe working conditions in nuclear power plants

International Nuclear Information System (INIS)

Brunner, K.H.

1984-01-01

Two representative examples were chosen to demonstrate that the problems related to safe working conditions can be solved with work being prepared extensively and in detail taking into consideration radiation protection and conventional job safety measures and with qualified staff. Most of the job safety problems in nuclear power plants are pretty much the same as in conventional plants. Despite successful implementation of employment and radiation protection in nuclear power plants, improvements in detail are possible and make sense. (orig.) [de

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.)

Psychosocial aspect of safe operation in Japanese nuclear power plants

International Nuclear Information System (INIS)

Kuroda, Isao

1988-01-01

It is not easy to reveal the reasons of safe operation of N.P.P. because many complicated factors are interrelated. However, to clarify the effective factors of the recent safe operation of Japanese N.P.P. is the important thema of research to continue this condition and the more improved level. At present, the follwing factors can be pointed out; 1) Influential safety policy of regulatory structures. 2) Enthusiastic and careful company policy on N.P.P. safety. 3) Close and stable relationship of the industries with companies on research, training and maintenance. 4) Collaborated safety research among scientific facilities, companies and manufacturers. 5) Good organization and management for N.P.P. personnel. 6) Well organized training program in company and training facilities. 7) Highly motivated N.P.P. personnel with high educational background. 8) Company atmosphere on N.P.P. safety. 9) Public opinion on nuclear power safety. (author)

Expected characteristics of future reactors for human beings

International Nuclear Information System (INIS)

Taketani, Kiyoaki

1992-01-01

Based on four reactor safety components (namely: a) God-given safety, b) Equipment safety, c) Quick-response safety, d) Containing safety), categorical assessment is made of various nuclear reactor concepts ranging from present existing reactors to future reactors based on innovative reactor design. In pursuit of nuclear reactor safety, ultimate characteristics of the ideal nuclear reactor are expected to coincide with those of an inherently safe reactor. A definition of 'inherently safe' has already been proposed by a committee in Japan. As a realistic and existable reactor, which is as close to the ideal reactor, a future reactor which is almost the same as a global reactor, is proposed. This global reactor must be constructable anywhere on earth and must permit easy operation and maintenance by anyone. It is also discussed to identify what behavior is expected of the global reactor under various conditions. At the same time, this future reactor which includes the global reactor, should solve a) the nuclear fuel resource issue, b) efficient utilization of fission energy and c) environmental issues as the greenhouse effect. (author). 7 refs., 2 figs

Lessons learned from commercial experience with nuclear plant decontamination to safe storage

International Nuclear Information System (INIS)

Fischer, S.R.; Partain, W.L.; Sype, T.

1995-01-01

The Department of Energy (DOE) has successfully performed decontamination and decommissioning (D ampersand D) on many production reactors it. DOE now has the challenge of performing D ampersand D on a wide variety of other nuclear facilities. Because so many facilities are being closed, it is necessary to place many of them into a safe-storage status before conducting D ampersand D-for perhaps as much as 20 yr. The challenge is to achieve this safe-storage condition in a cost-effective manner while remaining in compliance with applicable regulations. The DOE Office of Environmental Management, Office of Transition and Management, commissioned a lessons learned study of commercial experience with safe storage and transition to D ampersand D. Although the majority of the commercial experience has been with reactors, many of the lessons learned presented in this paper are directly applicable to transitioning the DOE Weapons Complex

Brighter future predicted at nuclear meetings in Chicago

International Nuclear Information System (INIS)

Stein, H.

1993-01-01

This article discusses the future of nuclear power in the United States and the rest of the world. It is a summary of a meeting of the American Nuclear Society/European Nuclear Society in Chicago. Some topics discussed include advanced reactor design, public relations, and nuclear safety

Is nuclear energy safe for workers and the public. III

International Nuclear Information System (INIS)

McKenzie, J.J. Jr.

1976-01-01

Dr. McKenzie says a national energy policy does exist, being based on synthetic fuels from coal and nuclear energy to meet future demands, and based on a complete lack of attention to conservation. In meeting energy demands for the future, he feels the opportunity still exists to create the scenario that will require meaningful jobs in the process, jobs requiring less capital and less energy. On the risks of nuclear energy, Dr. McKenzie discusses the funding, research, and results of the Atomic Energy Commission's safety program. He airs his views on WASH-1400, the study by Professor Norman Rasmussen, dealing with the possibilities of reactor core meltdowns. He thinks a worse problem resulting from nuclear power plants is that of waste disposal and cites AEC's poor record of managing these wastes in Kansas and elsewhere. In concluding, Dr. McKenzie says: (1) nuclear power may not be the best thing in the world, maybe we should look at other alternatives; (2) conservation is most important, and creates jobs at the same time if handled correctly; (3) AFL-C10 should sponsor a study on energy systems investigating its employment potential, net energy, economic factors, and capital requirements; and (4) construction of nuclear and coal plants will create jobs, but building solar plants will create jobs with fewer restraints on the environment. A panel discussion follows this, the third paper, on nuclear safety for workers and the public

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

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)

Nuclear energy questions

International Nuclear Information System (INIS)

This work pack contains illustrated booklets entitled: 'Uranium mining'; 'Reactors and radiation'; 'Nuclear waste'; 'Work book on energy'; 'Alternatives now'; 'Future energy choices'; 'Resources handbook'; and 'Tutors' guidelines': a map entitled 'Nuclear power in Britain': and two coloured pictures entitled 'Nuclear prospects' and 'Safe energy'. A cover note states that the material has been prepared for use in schools and study groups. (U.K.)

Nuclear data. Situation and future projects

International Nuclear Information System (INIS)

Bioux, P.

1995-01-01

Nuclear power provides the major part of the electricity generation in France, using a system of highly developed Pressurized Water Reactors. Electricite de France, which is responsible for the exploitation of this system, is concerned to ensure the continuity of the expertise and facilities which provide relevant basic scientific information contributing to the efficient exploitation of the system and, in particular, the continuity of the means for providing relevant nuclear data. The nuclear data requirements for the exploitation of the existing nuclear power system have been largely met. However, there remain some needs, in particular in the field of reactor neutronics. Furthermore if one considers the future (for example, the next 10 years) it is not certain that will be possible to meet the needs which are expected to arise. The review, commissioned on behalf of EDF, about the current status and future expectations for work in this field, has shown certain tendencies in the international situation. In particular one notes a general reduction in the effort both in Western Europe and the United States. This negative tendency can perhaps be explained by the almost general reduction world-wide in new nuclear power developments. However, unresolved problems remain, such as the development of methods for reducing the stocks of plutonium and the incineration and storage of a nuclear waste of long duration. In addition improvements in the accuracy of nuclear data could result in non-negligible economic benefits in the exploitation of the existing nuclear facilities. For these very important reasons it is desirable to reverse the present trend. (author). 2 annexes

Is nuclear power and alternative?

International Nuclear Information System (INIS)

Lejon, E.

1996-01-01

In this chapter of the book author deals with the historical background for the nuclear energy power. Some statistical data about nuclear power stations as well as on radioactive wastes are given. The Chernobyl catastrophe is described. Author thinks that nuclear energy is not safe and it has no perspective in future

Future of nuclear energy technology in Switzerland

International Nuclear Information System (INIS)

Tiberini, A.; Brogli, R.; Jermann, M.; Alder, H.P.; Stratton, R.W.; Troyon, F.

1988-01-01

Despite the present gloom surrounding the nuclear option for electricity and heat generation, there are still people in Switzerland in industry, research, banking and even politics willing and capable to think in terms of long-range projections. The basis for these projections is the belief that a well-functioning and prosperous society always needs large and reliable sources of acceptably priced energy, which must be generated with a high respect for the necessity of a clean environment. Being aware of the current low acceptance level of the nuclear option, efforts to keep this option open are directed to achieving the following goals: to maintain and improve the country's capabilities to safely operate the four existing nuclear power plants of Beznau (twin units), Muehleberg, Goesgen and Leibstadt; to keep the capability of extending the applications of nuclear energy technology. In practice, this could be in the fields of district heating, fusion, and advanced power reactors

The future of nuclear deterrence

Energy Technology Data Exchange (ETDEWEB)

Quester, G.H.

1986-01-01

Nuclear deterrence has been in existence for almost four decades. Yet, analysts from the left and the right keep reemphasizing the dangers and problems with deterrence without always remembering its purpose-the prevention of nuclear war or the prevention of all war. In this book. George Quester analyzes the future of nuclear deterrence in light of its past, and discovers that the fundamental tenets of nuclear deterrence remain unchanged. George Quester considers the overwhelming tensions present in a society threatened by the prospect of a nuclear holocaust and a lingering nuclear winter. But he also acknowledges that nuclear deterrence has prevented a great deal of global and local warfare that otherwise would have occurred. He spotlights the basic military problems facing the world today, including the shadow cast on all levels of strategic planning by the threat of nuclear war. Quester warns against charging forth with radical new alternatives, such as the Strategic Defense Initiative and deep-cut disarmament. He argues that initiatives such as these reflect a return to traditional military thinking about waging and winning wars that pose serious possibilities for a breakdown in deterrence policy.

Future of nuclear energy is promising

International Nuclear Information System (INIS)

Stritar, A.

1999-01-01

Paper is trying to clearly present the facts about World nuclear energy production in the past and in the future. The production has increased in last ten years for about 26% and will continue to grow. After next ten years we can expect between 12,5% and 25% higher production than this year. Therefore we, nuclear professionals, should not be pessimistic. We should strive not to use negative words in our communications between ourselves and especially to general public. Instead, we should proudly underline our achievements in the past and prospects for the future stressing all the benefits of this type of energy production.(author)

Nuclear power and sustainable development. Maintaining and increasing the overall assets available to future generations

International Nuclear Information System (INIS)

2002-01-01

A central goal of sustainable development is to maintain or increase the overall assets available to future generations, while minimizing consumption of finite resources and not exceeding the carrying capacities of ecosystems. The development of nuclear power broadens the natural resource base usable for energy production, increases human and man-made capital, and, when safely handled, has little impact on ecosystems. Energy is essential for sustainable development. With continuing population and economic growth, and increasing needs in the developing world, substantially greater energy demand is a given, even taking into account continuing and accelerated energy efficiency and intensity improvements. Today, nuclear power is mostly utilized in industrialized countries that have the necessary technological, institutional and financial resources. Many of the industrialized countries that are able and willing to use nuclear power are also large energy consumers. Nuclear power currently generates 16% of the world's electricity. It produces virtually no sulfur dioxide, particulates, nitrogen oxides, volatile organic compounds or greenhouse gases. Globally, nuclear power currently avoids approximately 600 million tonnes of carbon emissions annually, about the same as hydropower. The 600 MtC avoided by nuclear power equals 8% of current global greenhouse gases emissions. In the OECD countries, nuclear power has for 35 years accounted for most of the reduction in the carbon intensity per unit of delivered energy. Existing operating nuclear power plants (NPPs) for which initial capital investments are largely depreciated are also often the most cost-effective way to reduce carbon emissions from electricity generation. In fact in the United States in 2000, NPPs were the most cost-effective way to generate electricity, irrespective of avoided carbon emissions. In other countries the advantages of existing nuclear generating stations are also increasingly recognized. Interest

Management of nuclear power plants for safe operation

International Nuclear Information System (INIS)

Kueffer, K.

1980-01-01

This lecture covers management aspects which have an immediate bearing on safety and identifies the objectives and tasks of management which are required for safe operation of a nuclear power plant and is based on the Codes of Practice and Safety Guides of the IAEA as well as arrangements in use at the Swiss Nuclear Power Station Beznau. This lecture - discusses the factors to be considered in structuring the operating organization, the support to be provided to plant management, the services and facilities needed and the management system for assuring the safety tasks are performed - describes the responsibilities of plant management and operating organization - outlines the requirements for recruitment, training and retraining as well as qualification and authorization of personnel - describes the programmes for maintenance, testing, examination, inspection, radiological protection, quality assurance, waste management, fuel management, emergency arrangement and security - describes the development of plant operating procedures including procedures to protect the personnel - outlines the requirements for initial and subsequent operation - describes the importance for evaluation and feedback of operating experience - describes the procedures for changes in hardware, procedures and set points - outlines the information flow and the requirements in reference to records and reports. (orig./RW)

Safety of nuclear installations: Future direction

International Nuclear Information System (INIS)

1990-04-01

The Workshop presentations were divided into sessions devoted to the following topics: Environmental impact of fossil fuel energy technologies (5 papers), Future needs for nuclear power (7 papers), Safety objectives (10 papers), Safety aspects of the next generation of current-type nuclear power plants (8 papers), Safety aspects of new designs and concepts for nuclear power plants (6 papers), Special safety issues: Safety aspects of new designs and concepts for nuclear power plants (5 papers), Safety aspects of new designs and processes for the nuclear fuel cycle (5 papers), Closing panel (3 papers), 12 poster presentations and a Summary of the Workshop. A separate abstract was prepared for each of these papers. Refs, figs and tabs

Light water ultra-safe plant concept

International Nuclear Information System (INIS)

Klevans, E.

1989-01-01

Since the accident at Three Mile Island (TMI), Penn State Nuclear Engineering Department Faculty and Staff have considered various methods to improve already safe reactor designs and public perception of the safety of Nuclear Power. During 1987 and 1988, the Department of Energy provided funds to the Nuclear Engineering Department at Penn State to investigate a plant reconfiguration originated by M.A. Schultz called ''The Light Water Ultra-Safe Plant Concept''. This report presents a final summary of the project with references to several masters' theses and addendum reports for further detail. The two year research effort included design verification with detailed computer simulation of: (a) normal operation characteristics of the unique pressurizing concept, (b) severe transients without loss of coolant, (c) combined primary and secondary system modeling, and (d) small break and large break loss of coolant accidents. Other studies included safety analysis, low power density core design, and control system design to greatly simplify the control room and required operator responses to plant upset conditions. The overall conclusion is that a reconfigured pressurized water reactor can achieve real and perceived safety improvements. Additionally, control system research to produce greatly simplified control rooms and operator requirements should be continued in future projects

Using Nuclear Science and Technology Safely and Peacefully; La Utilizacion de la Ciencia y Tecnologia Nuclear de Forma Segura y Pacifica

Energy Technology Data Exchange (ETDEWEB)

Kaiser, P.

2011-07-01

The Fukushima Daiichi nuclear power plant in Japan suffered a serious accident on March 11, 2011, following a massive earthquake and tsunami. It caused millions of people around the world ask whether nuclear energy can ever be made sufficiently safe. In view of these questions, IAEA Director General Yukiya Amano said the IAEA will continue to pursue its mandate to help improve nuclear power plant safety and to ensure transparency about the risks of radiation. Only in this way will we succeed in addressing the concerns that have been raised by Fukushima Daiichi. (Author)

International conference on safe decommissioning for nuclear activities: Assuring the safe termination of practices involving radioactive materials. Contributed papers

Energy Technology Data Exchange (ETDEWEB)

NONE

2002-07-01

Thousands of operations involving the use of radioactive substances will end during the current century. While there is considerable regulatory experience in the 'front end' of the regulatory system for practices, the experience at the back end is more limited as fewer practices have actually been terminated. When a practice is terminated because the facility has reached the end of its useful life, action has to betaken to ensure the safe shutdown of the facility and allow the removal of regulatory controls. There are many issues involved in the safe termination of practices. These include setting criteria for the release of material and sites from regulatory control; determining the suitability of the various options for decommissioning nuclear facilities, managing the waste and material released from control (recycling, reuse or disposal), and the eventual remediation of the site. Some countries have put in place regulatory infrastructures and have developed programmes to manage the associated decommissioning and remediation activities. Other countries are at the stage of assessing what is involved in terminating such practices. The purpose of this Conference is to foster an information exchange on the safe an orderly termination of practices that involve the use of radioactive substances, including both decommissioning and environmental remediation, and to promote improved coherence internationally on strategies and criteria for the safe termination of practices.

International conference on safe decommissioning for nuclear activities: Assuring the safe termination of practices involving radioactive materials. Contributed papers

International Nuclear Information System (INIS)

2002-01-01

Thousands of operations involving the use of radioactive substances will end during the current century. While there is considerable regulatory experience in the 'front end' of the regulatory system for practices, the experience at the back end is more limited as fewer practices have actually been terminated. When a practice is terminated because the facility has reached the end of its useful life, action has to betaken to ensure the safe shutdown of the facility and allow the removal of regulatory controls. There are many issues involved in the safe termination of practices. These include setting criteria for the release of material and sites from regulatory control; determining the suitability of the various options for decommissioning nuclear facilities, managing the waste and material released from control (recycling, reuse or disposal), and the eventual remediation of the site. Some countries have put in place regulatory infrastructures and have developed programmes to manage the associated decommissioning and remediation activities. Other countries are at the stage of assessing what is involved in terminating such practices. The purpose of this Conference is to foster an information exchange on the safe an orderly termination of practices that involve the use of radioactive substances, including both decommissioning and environmental remediation, and to promote improved coherence internationally on strategies and criteria for the safe termination of practices

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)

Nuclear Security Futures Scenarios

International Nuclear Information System (INIS)

Keller, Elizabeth James Kistin; Warren, Drake Edward; Hayden, Nancy Kay; Passell, Howard D.; Malczynski, Leonard A.; Backus, George A.

2017-01-01

This report provides an overview of the scenarios used in strategic futures workshops conducted at Sandia on September 21 and 29, 2016. The workshops, designed and facilitated by analysts in Center 100, used scenarios to enable thought leaders to think collectively about the changing aspects of global nuclear security and the potential implications for the US Government and Sandia National Laboratories.

Nuclear Security Futures Scenarios.

Energy Technology Data Exchange (ETDEWEB)

Keller, Elizabeth James Kistin [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Warren, Drake Edward [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Hayden, Nancy Kay [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Passell, Howard D. [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Malczynski, Leonard A. [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Backus, George A. [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States)

2017-01-01

This report provides an overview of the scenarios used in strategic futures workshops conducted at Sandia on September 21 and 29, 2016. The workshops, designed and facilitated by analysts in Center 100, used scenarios to enable thought leaders to think collectively about the changing aspects of global nuclear security and the potential implications for the US Government and Sandia National Laboratories.

Safe nuclear power

International Nuclear Information System (INIS)

Cady, K.B.

1992-01-01

Nearly 22 percent of the electricity generated in the United States already comes from nuclear power plants, but no new plants have been ordered since 1978. This paper reports that the problems that stand in the way of further development have to do with complexity and perceived risk. Licensing, construction management, and waste disposal are complex matters, and the possibility of accident has alienated a significant portion of the public. But a national poll conducted by Bruskin/Goldring at the beginning of February shows that opposition to nuclear energy is softening. Sixty percent of the American people support (strongly or moderately) the use of nuclear power, and 18 percent moderately oppose it. Only 15 percent remain obstinately opposed. Perhaps they are not aware of recent advances in reactor technology

The future of nuclear power: The role of the IFR

International Nuclear Information System (INIS)

Wilson, R.

1995-01-01

The author is in favor of nuclear energy for three major reasons: (1) a nuclear power station emits no particulates or sulfur; (2) a nuclear power station emits no carbon dioxide and therefore does not contribute (appreciably) to the possibility of global warming which is a major environmental issue of this century; (3) nuclear energy offers the opportunity to have an energy supply sustainable for the next hundred thousands years, and is the only supply presently known to be able to do so at a reasonable cost. He notes that at Rio de Janeiro, the USA joined other countries in calling for an approach to an indefinitely sustainable future. Alas, they were not bold or honest enough to state that using nuclear power, combined with considerable increase in energy efficiency and prudent use of renewables, is the only known way of achieving one other than massive population reduction or poverty. It is unlikely that improved energy efficiency can do the job alone. If the first two were the only issues, ordinary light water reactors would be adequate. One would not need the breeder reactor. But unless huge quantities of high quality uranium are found, or a cheap way of extracting it from seawater, one will need to have a way of using the uranium 238 or thorium. This is the role of this meeting. The author arrives at a set of criteria for a breeder reactor system: (1) it must be safe (secure against major accidents); (2) the system must be proliferation resistant; (3) the cost of the produced electricity must be competitive with other sources of energy--with perhaps a small margin for environmental advantage; (4) it must be capable of rapid expansion if and when needed

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

Nuclear power and Imatran Voima in the future

International Nuclear Information System (INIS)

Numminen, K.

1995-01-01

As the owner of the Loviisa NPS with two VVER-440 units, Imatran Voima (IVO) has worked with nuclear power for more than twenty years. After the negative decision of the Finnish Parliament in 1993 there are no possibilities to build nuclear power in Finland in the near future. However, the preparation work for increasing the produced power of all four operating NPP's of Finland is going on. The emphasis in the work with new nuclear energy is on the supporting programs in Eastern Europe and the preparation of a building contract of a new NPS to China together with the Russians. With a new decision of the Finnish Parliament, the nuclear option could still be an important part of the future energy strategy of Finland. (orig.)

The future of nuclear energy: A perspective on nuclear power development

International Nuclear Information System (INIS)

Sackett, J. I.

2000-01-01

The author begins by discussing the history of nuclear power development in the US. He discusses the challenges for nuclear power such as the proliferation of weapons material, waste management, economics, and safety. He then discusses the future for nuclear power, specifically advanced reactor development. People can all be thankful for nuclear power, for it may well be essential to the long term survival of civilization. Within the seeds of its potential for great good, are also the seeds for great harm. People must ensure that it is applied for great good. What is not in question is whether people can live without it, they cannot. United States leadership is crucial in determining how this technology is developed and applied. The size and capability of the United States technical community is decreasing, a trend that cannot be allowed to continue. It is the author's belief that in the future, the need, the vision and the confidence in nuclear power will be restored, but only if the US addresses the immediate challenges. It is a national challenge worthy of the best people this nation has to offer

Prospects for inherently safe reactors

International Nuclear Information System (INIS)

Barkenbus, J.N.

1988-01-01

Public fears over nuclear safety have led some within the nuclear community to investigate the possibility of producing inherently safe nuclear reactors; that is, reactors that are transparently incapable of producing a core melt. While several promising designs of such reactors have been produced, support for large-scale research and development efforts has not been forthcoming. The prospects for commercialization of inherently safe reactors, therefore, are problematic; possible events such as further nuclear reactor accidents and superpower summits, could alter the present situation significantly. (author)

MHR fuel cycle options for future sustainability of nuclear power

International Nuclear Information System (INIS)

Baxter, Alan; Venneri, Francesco; Rodriguez, Carmelo; Fikani, Michael

2005-01-01

The future sustainability of the nuclear option is not significantly tied to the level of resources. For example, current high quality uranium reserves (∼3.34x10 6 tons) are enough for more than 55 years at present consumption rates (IAEA estimate). Doubling of the present uranium ore price (∼$26/kg) could create about a tenfold increase in resources, providing more than 550 years of supply at present rates (World Nuclear Association estimate). There are also thorium reserves which are estimated to be about three times those of uranium, and would allow for a significant increase in annual consumption levels. The key to a sustainable nuclear future is really tied to the political and technical problems of long term waste disposal, and the perceived risks of nuclear weapons proliferation. Thus fuel cycle options for a sustainable nuclear future must address and solve these issues. High temperature, Gas-Cooled, Graphite Moderated, reactors (MHRs) have nuclear and operational characteristics to provide multiple fuel cycle options to solve these issues. Three fuel cycles for the MHD are described in this paper, and their capabilities for meeting a sustainable nuclear future in terms of nuclear waste minimization and destruction, and reduction of proliferation risk, are discussed. (author)

Nuclear Technologies Secure Food For Future

International Nuclear Information System (INIS)

2012-01-01

Full text: For nearly fifty years, applications of nuclear technology have been helping the world's farmers, contributing new varieties of crops, controlling pests, diagnosing livestock disease, improving soil and water management and increasing food safety. The significant role of nuclear technology in supporting agriculture will be the focus of this year's IAEA Scientific Forum in Vienna on 18-19 September. Food for the Future: Meeting the Challenges with Nuclear Applications is the theme of the Forum, which takes place during the annual IAEA General Conference. ''Demand for food is rising significantly as the world's population grows,'' IAEA Director General Yukiya Amano said. ''Fighting hunger is a key priority. It is essential not only that the world should produce more food. We must also protect crops and livestock and make sure that food is safe to eat. Nuclear applications can make a real difference in all of these areas.'' ''The goal of the Scientific Forum is to make Member States more aware of the very important work of the IAEA in nuclear applications related to food and to encourage more countries to make use of our services.'' Nuclear technology has many possible uses in food and agriculture. By irradiation, scientists can accelerate natural spontaneous mutation and improve crop varieties to suit particular conditions. Farmers are benefitting from rice that grows in salty conditions, barley that flourishes above 4 000 metres (13 000 feet) and hundreds of other crop varieties. The use of the sterile insect technique, in which males of a targeted species such as the tsetse fly or the Mediterranean fruit fly are sterilised by radiation and released into the wild, is expanding significantly. This effectively combats insect pests that damage crops and spread disease among humans and livestock, while limiting pesticide use. The world was last year declared free of the deadly cattle disease rinderpest after a campaign made possible by nuclear techniques. The

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

Nuclear energy's dilemma: disposing of hazardous radioactive waste safely. Report to the congress

International Nuclear Information System (INIS)

1977-01-01

The unsolved problem of radioactive waste disposal threatens the future of nuclear power in the United States. Nuclear critics, the public, business leaders, and Government officials concur that a solution to the disposal problem is critical to the continued growth of nuclear energy. The Energy Research and Development Administration has begun a program to demonstrate by the mid-1980s the feasibility and safety of placing radioactive wastes in deep geological formations. GAO points out that not only has progress been negligible to date, but that future program goals are overly optimistic because the Energy Research and Development Administration faces many unsolved social, regulatory, and geological obstacles. GAO also discusses the progress and problems the Energy Research and Development Administration faces in managing its radioactive waste and how the Nuclear Regulatory Commission is handling the problem of large amounts of spent nuclear fuel now accumulating at nuclear power plants, and makes a number of recommendations for regulatory and program management changes

International Nuclear Technology Forum: Future prospects of nuclear power plants and Turkey

International Nuclear Information System (INIS)

1994-01-01

The document includes 19 papers presented at the 'International Nuclear Technology Forum: Future Prospects of Nuclear Power Plants in Turkey', held between 12-15 October 1993 in Ankara (Turkey). A separate abstract was prepared for each paper prepared for each paper

A collection of publications and articles for a light water ultra-safe plant concept

International Nuclear Information System (INIS)

Klevans, E.H.

1988-01-01

This collection contains reports titled: ''The Penn State Ultra-Safe Reactor Concept; '' ''Ultra Safe Nuclear Power; '' ''Use of the Modular Modeling System, in the Design of the Penn State Advanced Light Water Reactor; '' ''Use of the Modular Modeling System in Severe Transient Analysis of Penn State Advanced Light Water Reactor; '' ''PSU Engineers' Reactor Design May Stop a Future TMI; '' and ''The Penn State Advanced Light Water reactor Concept.''

Weapons-grade nuclear material - open questions of a safe disposal

International Nuclear Information System (INIS)

Closs, K.D.; Giraud, J.P.; Grill, K.D.; Hensing, I.; Hippel, F. von; Holik, J.; Pellaud, B.

1995-01-01

There are suitable technologies available for destruction of weapons-grade uranium and plutonium. Weapons-grade uranium, consisting to 90% of the isotope U-235, can be diluted with the uranium isotope U-238 to make it non-weapons-grade, but it will then still be a material that can be used as a fuel in civil nuclear reactors. For safe plutonium disposal, several options are under debate. There is for instance a process called ''reverse reprocessing'', with the plutonium being blended with high-level radioactive fission products and then being put into a waste form accepted for direct ultimate disposal. The other option is to convert weapons-grade plutonium into MOX nuclear fuel elements and then ''burn'' them in civil nuclear power reactors. This is an option favoured by many experts. Such fuel elements should stay for a long time in the reactor core in order to achieve high burnups, and should then be ready for ultimate disposal. This disposal pathway offers essential advantages: the plutonium is used up or depleted as a component of reactor fuel, and thus is no longer available for illegal activities, and it serves as an energy source for power generation. (orig./HP) [de

Nuclear sector foresees future role

International Nuclear Information System (INIS)

Anon.

1991-01-01

The latest annual symposium of the Uranium Institute (the international association of organizations connected with nuclear energy) covered a broad spectrum of topics. The symposium is reviewed. The position of nuclear power in the USA, Germany, Korea, Hungary and Czechoslovakia was studied. Although future electricity demand was difficult to predict the coupling between economic and electricity consumption growths was expected to continue. In spite of energy conservation and demand-side management, new generations capacity will be needed in the next 20 years. This would include some nuclear generating capacity which would affect the uranium market. The topics covered at the symposium included the greenhouse effect, the uranium market, uranium production, radioactive waste management and public opinion under the influence of changing ethics. (UK)

Proceedings of TopSafe 2008 Transactions

International Nuclear Information System (INIS)

2008-01-01

The aim of the conference is to provide a forum for addressing the current status and future perspectives with regards to safety at nuclear installations worldwide. Previous TopSafe editions took place in Budapest (1995) and Valencia (1998). The conference is directed at a broad range of experts in the area of nuclear safety, including professionals from the different disciplines involved in the safety of nuclear power plants, installations in other parts of the fuel cycle, and research reactors. It is aimed at professionals coming from the research organisations, universities, vendors, operators, regulatory bodies as well as policy makers. Top level representatives of the Countries that are constructing new nuclear power plants are invited. Regulators of all individual Countries with nuclear programme are expected to contribute the Conference. The topics of the conference are: Safety Issues of Operating Power Plants PWR and BWR, CANDU, WWER, RBMK; Application of European Utilities Requirements; Probabilistic and Deterministic Analysis; Shutdown Safety; Advances in Safety: Analysis Codes and Techniques; Severe Accidents Management; International Safety Studies; Emergency Planning; Risk Informed Application and Licensing; Regulatory Safety Requirements; Ageing and Life Extension; Power Upgrades and Relevant Topics; Management of Safety and Quality; Safety Culture and Self Assessment; Political and Public Perception of Nuclear Energy; Nuclear Power Plant Security; Safety Issues of Future Power Plants-Near term deployment reactors (EPR, SWR1000, AP1000, ESBWR, SBWR, ACR-1000) and Generation IV reactors; Safety Issues of Research Reactors (pool type and others); Fuel Cycle Facilities Safety-Uranium mining and conversion, enrichment and fuel production, reprocessing and transmutation, waste disposal. (authors)

Political life and half-life: the future formulation of nuclear waste public policy in the United States.

Science.gov (United States)

Leroy, David

2006-11-01

The United States continues to need forward-thinking and revised public policy to assure safe nuclear waste disposal. Both the high- and low-level disposal plans enacted by Congress in the 1980's have been frustrated by practical and political interventions. In the interim, ad hoc solutions and temporary fixes have emerged as de facto policy. Future statutory, regulatory, and administrative guidance will likely be less bold, more narrowly focused, and adopted at lower levels of government, more informally, in contrast to the top-down, statutory policies of the 1980's.

Social costs and benefits of nuclear futures

International Nuclear Information System (INIS)

Pearce, D.

1979-01-01

The conceptual framework for evaluating which energy path is chosen is one of trading-off costs and benefits in a world of technological, economic and social uncertainty. The translation of this conceptual framework into an analytical format with empirical relevance is dealt with. Some salient features of cost benefit analysis are discussed. Actual costs and benefits of nuclear futures are then considered. Subjects discussed are: routine and non-routine radiation, waste management, proliferation, and civil liberties. A 'regret' matrix is presented showing the cost to any future generation if a decision on nuclear power is made now. (U.K.)

Future fuel choices in Asia - the future for nuclear

International Nuclear Information System (INIS)

Williams, W.A.

1993-01-01

It wasn't so long ago that the political events in the Persian Gulf threatened global energy supply and showed the vulnerability of global economies to the interruptions of foreign oil imports. Today, with increasing global environmental concerns associated with the use of fossil fuels, there is renewed interest in the nuclear energy option. The fast economic growth currently experienced in the Asia Pacific region is expected to drive electrical demands in an unprecedented pace. Current forecast of the world's total uncommitted electrical needs exceed 1,100 GWe over the next 10-15 years. In the US, the excess of electrical generating capacity which has existed for the past 15 years is coming to an end, and as we approach the 21st century, an estimated 200+ GWe of new generating capacity will be needed in the next 15 years. This paper describes GE's advanced boiling water reactor programs aimed at providing a new generation of nuclear energy plants to provide safe, clean, reliable, and economical electricity to the world's utilities as we enter the 21st century. (author)

Enabling Technologies for Ultra-Safe and Secure Modular Nuclear Energy

International Nuclear Information System (INIS)

Mendez Cruz, Carmen Margarita; Rochau, Gary E.; Middleton, Bobby; Rodriguez, Salvador B.; Rodriguez, Carmelo; Schleicher, Robert

2016-01-01

Sandia National Laboratories and General Atomics are pleased to respond to the Advanced Research Projects Agency-Energy (ARPA-e)'s request for information on innovative developments that may overcome various current reactor-technology limitations. The RFI is particularly interested in innovations that enable ultra-safe and secure modular nuclear energy systems. Our response addresses the specific features for reactor designs called out in the RFI, including a brief assessment of the current state of the technologies that would enable each feature and the methods by which they could be best incorporated into a reactor design.

Enabling Technologies for Ultra-Safe and Secure Modular Nuclear Energy

Energy Technology Data Exchange (ETDEWEB)

Mendez Cruz, Carmen Margarita [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Rochau, Gary E. [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Middleton, Bobby [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Rodriguez, Salvador B. [Sandia National Lab. (SNL-NM), Albuquerque, NM (United States); Rodriguez, Carmelo [General Atomics, San Diego, CA (United States); Schleicher, Robert [General Atomics, San Diego, CA (United States)

2016-06-01

Sandia National Laboratories and General Atomics are pleased to respond to the Advanced Research Projects Agency-Energy (ARPA-e)’s request for information on innovative developments that may overcome various current reactor-technology limitations. The RFI is particularly interested in innovations that enable ultra-safe and secure modular nuclear energy systems. Our response addresses the specific features for reactor designs called out in the RFI, including a brief assessment of the current state of the technologies that would enable each feature and the methods by which they could be best incorporated into a reactor design.

The Utah Nuclear Engineering Program and DevonWay are Developing One and Unique Approach to PLiM for Securing the Nation's Nuclear Future

International Nuclear Information System (INIS)

Jevremovic, Tatjana; Choe, Dongok; Yang, Haori; White, Sally; Kelly, Mike

2012-01-01

The safety culture involving a comprehensive training of the employed engineers at the power plant facilities is neither a simple nor a straightforward task. With aging management and operators, impact of the Fukushima nuclear event, unforeseen and timely unpredictable effects of nuclear memories (Three Mile Island, Chernobyl, Second World War) as evoked every time we have worldwide challenges or discussions of where the nuclear technology will/would further develop, we face a fearful question - is our educational and training approach the right one; is it going to assure continuous and secured practices in providing safe operation of our nuclear power plants?... We at the University of Utah with our just recently revitalized Nuclear Engineering Program, find that the root of securing the safety culture and providing its sustainability in our existing and future nuclear power plants, lies in very early educational practices. We believe that every program in nuclear engineering education shall include training in nuclear safety. That training shall certainly include industrial based practices and involve experts from the companies that develop and contribute to nuclear power safety to add to class practices at the University teaching settings. Working with DevonWay, a leading company in developing software to improve the safety cultures at nuclear power plants in the country, we have implemented the 'Track and Trace' software into our nuclear engineering program, emphasizing high quality training of our undergraduate and graduate students, and promoting a higher level safety culture practices at our nuclear engineering facilities. (author)

Current status and future prospects of nuclear energy utilization in Japan

International Nuclear Information System (INIS)

Kondo, S.

2006-01-01

Nuclear power is recognized as a safe, reliable and competitive energy source in Japan as Japan's 55 nuclear power plants supply about a third of the country's electricity and contribute to the rise in her degree of self-sufficiency in primary energy supply from 4% to 17%. It is also a practical and effective mean to observe the promise of the Kyoto Protocol to reduce CO2 emissions into atmosphere. The development of nuclear science and engineering, on the other hand, contributes not only to the advancement of science and technology in various fields but also to the improvement of health and living standards of the people as well as to the industrial prosperity through the application of radiation to medical diagnosis, cancer treatment, insect pest control, production of semi-conductors, radial tiers, etc. Major goal of current nuclear energy policy in Japan is to enrich the basic measures that compose the basis for the utilization of nuclear energy technologies in civil society and encourage academia and industries to innovate themselves to grapple the challenge, while sustaining the share of nuclear power in electricity generation after the year 2030 at the level equal to or greater than the current level of 30-40% based on the strategy to recycle uranium and plutonium from nuclear spent fuels, in addition to the expansion of the use of radiation technologies. Major policy areas are the improvement of institutional and financial arrangements to promote safe and effective utilization of nuclear energy technology including radiation technologies, the promotion of effective and efficient research and development activities, and the promotion of bilateral and multilateral cooperative activities necessary and or useful for facilitating these activities, in addition to nurturing the international political and institutional environment suitable for the sound promotion of nuclear energy utilization in the world. To pursue these goals, Japanese government and industries

Nuclear Data Uncertainty Quantification: Past, Present and Future

International Nuclear Information System (INIS)

Smith, D.L.

2015-01-01

An historical overview is provided of the mathematical foundations of uncertainty quantification and the roles played in the more recent past by nuclear data uncertainties in nuclear data evaluations and nuclear applications. Significant advances that have established the mathematical framework for contemporary nuclear data evaluation methods, as well as the use of uncertainty information in nuclear data evaluation and nuclear applications, are described. This is followed by a brief examination of the current status concerning nuclear data evaluation methodology, covariance data generation, and the application of evaluated nuclear data uncertainties in contemporary nuclear technology. A few possible areas for future investigation of this subject are also suggested

Nuclear Data Uncertainty Quantification: Past, Present and Future

Science.gov (United States)

Smith, D. L.

2015-01-01

An historical overview is provided of the mathematical foundations of uncertainty quantification and the roles played in the more recent past by nuclear data uncertainties in nuclear data evaluations and nuclear applications. Significant advances that have established the mathematical framework for contemporary nuclear data evaluation methods, as well as the use of uncertainty information in nuclear data evaluation and nuclear applications, are described. This is followed by a brief examination of the current status concerning nuclear data evaluation methodology, covariance data generation, and the application of evaluated nuclear data uncertainties in contemporary nuclear technology. A few possible areas for future investigation of this subject are also suggested.

Russian-U.S. joint program on the safe management of nuclear materials

International Nuclear Information System (INIS)

Witmer, F.E.; Krumpe, P.F.; Carlson, D.D.

1997-12-01

The Russian-US joint program on the safety of nuclear materials was initiated in response to the 1993 Tomsk-7 accident. The bases for this program are the common technical issues confronting the US and Russia in the safe management of excess weapons grade nuclear materials. The US and Russian weapons dismantlement process is producing hundreds of tons of excess Pu and HEU fissile materials. The US is on a two path approach for disposition of excess Pu: (1) use Pu in existing reactors and/or (2) immobilize Pu in glass or ceramics followed by geologic disposal. Russian plans are to fuel reactors with excess Pu. US and Russia are both converting and blending HEU into LEU for use in existing reactors. Fissile nuclear materials storage, handling, processing, and transportation will be occurring in both countries for tens of years. A table provides a history of the major events comprising the Russian-US joint program on the safety of nuclear materials. A paper delineating program efforts was delivered at the SPECTRUM '96 conference. This paper provides an update on program activities since then

Low-temperature thermionics in space nuclear power systems with the safe-type fast reactor

International Nuclear Information System (INIS)

Zrodnikov, A.V.; Yarygin, V.I.; Lazarenko, G.E.; Zabudko, A.N.; Ovcharenko, M.K.; Pyshko, A.P.; Mironov, V.S.; Kuznetsov, R.V.

2007-01-01

The potentialities of the use of the low-temperature thermionic converters (TIC) with the emitter temperature ≤ 1500 K in the space nuclear power system (SNPS) with the SAFE-type (Safe Affordable Fission Engine) fast reactor proposed and developed by common efforts of American experts have been considered. The main directions of the 'SAFE-300-TEG' SNPS (300 kW(thermal)) design update by replacing the thermoelectric converters with the low-temperature high-performance thermionic converters (with the barrier index V B ≤ 1.9 eV and efficiency ≥ 10%) meant for a long-term operation (5 years at least) as the components of the SAFE-300-TIC SNPS for a Lunar base have been discussed. The concept of the SNPS with the SAFE-type fast reactor and low-temperature TICs with specific electric power of about 1.45 W/cm 2 as the components of the SAFE-300-TIC system meeting the Nasa's initial requirements to a Lunar base with the electric power demand of about 30 kW(electrical) for robotic mission has been considered. The results, involving optimization and mass-and-size estimation, show that the SAFE-300-TIC system meets the initial requirements by Nasa to the lunar base power supply. The main directions of the system update aimed at the output electric power increase up to 100 kW(electrical) have also been presented. (authors)

Freedom from nuclear energy myth

International Nuclear Information System (INIS)

Kim, Wonsik

2001-09-01

This book generalizes the history of nuclear energy with lots of myths. The contents of this book are a fundamental problem of nuclear power generation, the myth that nuclear energy is infinite energy, the myth that nuclear energy overcomes the crisis of oil, the myth that nuclear energy is cheap, safe and clean, the myth that nuclear fuel can be recycled, the myth that nuclear technology is superior and the future and present of nuclear energy problem related radiation waste and surplus of plutonium.

Nuclear desalination in the Arab world - Part II: Advanced inherent and passive safe nuclear reactors

International Nuclear Information System (INIS)

Karameldin, A.; Samer S. Mekhemar

2004-01-01

Rapid increases in population levels have led to greater demands for fresh water and electricity in the Arab World. Different types of energies are needed to contribute to bridging the gap between increased demand and production. Increased levels of safeguards in nuclear power plants have became reliable due to their large operational experience, which now exceeds 11,000 years of operation. Thus, the nuclear power industry should be attracting greater attention. World electricity production from nuclear power has risen from 1.7% in 1970 to 17%-20% today. This ratio had increased in June 2002 to reach more than 30%, 33% and 42% in Europe, Japan, and South Korea respectively. In the Arab World, both the public acceptance and economic viability of nuclear power as a major source of energy are greatly dependent on the achievement of a high level of safety and environmental protection. An assessment of the recent generation of advanced reactor safety criteria requirements has been carried out. The promising reactor designs adapted for the Arab world and other similar developing countries are those that profit from the enhanced and passive safety features of the new generation of reactors, with a stronger focus on the effective use of intrinsic characteristics, simplified plant design, and easy construction, operation and maintenance. In addition, selected advanced reactors with a full spectrum from small to large capacities, and from evolutionary to radical types, which have inherent and passive safety features, are discussed. The relevant economic assessment of these reactors adapted for water/electricity cogeneration have been carried out and compared with non-nuclear desalination methods. This assessment indicates that, water/electricity cogeneration by the nuclear method with advanced inherent and passive safe nuclear power plants, is viable and competitive. (author)

The 10 years of history on the Korea Institute of Nuclear Safety

International Nuclear Information System (INIS)

2000-02-01

This book reports the 10 years of history of Korea Institute of Nuclear Safety which is divided into three part. The first part includes summary, beginning and launching of KINS and establishment and development of KINS. The second deals with inspection safety on nuclear power facilities, protection of radiation and surveillance for environment, safe criterion and development of safe regulation and providing assistance of safe regulation. The third part mentions direction of safe regulation on nuclear power, long term vision and innovation of management, future for KINS. It has appendixes such as a chronological table current condition of budget and human resources.

The future of nuclear power

CERN Document Server

Mahaffey, James

2012-01-01

Newly conceived, safer reactor designs are being built in the United States (and around the world) to replace the 104 obsolete operating nuclear power reactors in this country alone. The designs--which once seemed exotic and futuristic--are now 40 years old, and one by one these vintage Generation II plants will reach the end of productive service in the next 30 years. The Future of Nuclear Power examines the advanced designs, practical concepts, and fully developed systems that have yet to be used. This book introduces readers to the traditional, American system of units, with some archaic te

Integral Fast Reactor: A future source of nuclear energy

International Nuclear Information System (INIS)

Southon, R.

1993-01-01

Argonne National Laboratory is developing a reactor concept that would be an important part of the worlds energy future. This report discusses the Integral Fast Reactor (IFR) concept which provides significant improvements over current generation reactors in reactor safety, plant complexity, nuclear proliferation, and waste generation. Two major facilities, a reactor and a fuel cycle facility, make up the IFR concept. The reactor uses fast neutrons and metal fuel in a sodium coolant at atmospheric pressure that relies on laws of physics to keep it safe. The fuel cycle facility is a hot cell using remote handling techniques for fabricating reactor fuel. The fuel feed stock includes spent fuel from the reactor, and potentially, spent light water reactor fuel and plutonium from weapons. This paper discusses the unique features of the IFR concept and the differences the quality assurance program has from current commercial practices. The IFR concept provides an opportunity to design a quality assurance program that makes use of the best contemporary ideas on management and quality

Chemistry for the nuclear energy of the future

International Nuclear Information System (INIS)

Chmielewski, A.G.

2011-01-01

Chemistry - radiochemistry, radiation chemistry and nuclear chemical engineering play a very important role in the nuclear power development. Even at present, the offered technology is well developed, but still several improvements are needed and proposed. These developments concern all stages of the technology; front end, reactor operation (coolant chemistry and installation components decontamination, noble gas release control), back end of fuel cycle, etc. Chemistry for a partitioning and a transmutation is a new challenge for the chemists and chemical engineers. The IV th generation of nuclear reactors cannot be developed without chemical solutions for fuel fabrication, radiation-coolants interaction phenomena understanding and spent fuel/waste treatment technologies elaboration. Radiochemical analytical methods are fundamental for radioecological monitoring of radioisotopes of natural and anthropological origin. This paper addresses just a few subjects and is not a detailed overview of the field, however it illustrates a role of chemistry for a safe and economical nuclear power development. (author)

Nuclear Knowledge Management Programmes for Young Generations

International Nuclear Information System (INIS)

De Grosbois, John

2017-01-01

The Future of Nuclear Energy: Today’s Challenges - •Climate change •Investment in renewables •Societal acceptance of nuclear energy •Nuclear R&D declining •Aging reactor fleets •Phase-outs •Pace of new builds •Future uncertainties. Future Opportunities - •Shift to smart energy grids •Carbon tax and “cap and trade” systems •Possible need for new nuclear energy solutions: –high temperature reactors –hybrids → steam reforming –smaller plants needed –minimized nuclear waste –inherently safe designs. Supporting TC’s “Strategic Capacity Building Approach” (SCBA) by Strengthening Sustainable National Nuclear Education Systems: Knowledge sharing & eLearning platforms (e.g. CLP4NET) and supporting tools → Regional Nuclear Education Networks; → National Nuclear Education Networks; → Stakeholder Networking for Human Resource and Knowledge Development

Nuclear energy, energy of the future or bad solution?

International Nuclear Information System (INIS)

2003-01-01

The document presents the speeches of the debate on the nuclear energy solution for the future, presented during the meeting of the 6 may in Rennes, in the framework of the National Debate on the energies. The debate concerns the risks assessment and control, the solutions for the radioactive wastes, the foreign examples and the future of the nuclear energy. (A.L.B.)

Future of Nuclear Power: NRC emergency preparedness licensing activities agenda

International Nuclear Information System (INIS)

Essig, T.H.

1995-01-01

This talk summary addresses the issue of how future policies of the NRC will affect nuclear power in areas such as construction, emergency preparedness, and licensing. Specific topics covered include the following: Emergent EP licensing issues for operating nuclear Power Plants; 10CFR Part 52 and the process for licensing of Advanced Light Water Reactors (ALWRs); and potential revisions to emergency preparedness programs for future nuclear power plants

Earth's nuclear future: what difference do ethics make

International Nuclear Information System (INIS)

Maxey, M.

1999-01-01

In connection with the exclusion of nuclear energy from the Protocol on the problems of global warming accepted at the Ecology Conference in Kyoto, various points of view are presented. Problems connected with the future development of nuclear energy production is discussed

The future of nuclear power in the United Kingdom

International Nuclear Information System (INIS)

Jones, P.M.S.

1990-01-01

The arguments that have been put forward in the United Kingdom to justify the contention by its opponents that nuclear power should not be seen as a safe, economic, strategically desirable and environmentally attractive energy source are examined. Counter arguments are presented to support the belief that these are wholly wrong. In the short to medium term, however, economic and political considerations suggest that the prospects for nuclear power in the United Kingdom are not optimistic. The long term evolution of nuclear power is uncertain but it is possible that the security of energy supply, comparative economics and environmental attractions associated with nuclear power will become more apparent and work in its favour eventually. The conviction is expressed that, by the middle of the next century, the United Kingdom will be reaping the benefits of the fast reactor on a significant scale. (UK)

Future spent nuclear fuel and radioactive waste infrastructure in Norway

International Nuclear Information System (INIS)

Soerlie, A.A.

2002-01-01

In Norway a Governmental Committee was appointed in 1991 to make an evaluation of the future steps that need to be taken in Norway to find a final solution for the spent nuclear fuel and for some other radioactive waste for which a disposal option does not exist today. The report from the Committee is now undergoing a formal hearing process. Based on the Committees recommendation and comments during the hearing the responsible Ministry will take a decision on future infrastructure in Norway for the spent nuclear fuel. This will be decisive for the future management of spent nuclear fuel and radioactive waste in Norway. (author)

Research Facilities for the Future of Nuclear Energy

International Nuclear Information System (INIS)

Ait Abderrahim, H.

1996-01-01

The proceedings of the ENS Class 1 Topical Meeting on Research facilities for the Future of Nuclear Energy include contributions on large research facilities, designed for tests in the field of nuclear energy production. In particular, issues related to facilities supporting research and development programmes in connection to the operation of nuclear power plants as well as the development of new concepts in material testing, nuclear data measurement, code validation, fuel cycle, reprocessing, and waste disposal are discussed. The proceedings contain 63 papers

Safety Culture and the Future of Nuclear Energy

International Nuclear Information System (INIS)

Yim, M.-S.

2016-01-01

The occurrence of the TMI, Chernobyl, and Fukushima accidents in the past gives people a false pretence that nuclear accidents are destined to happen. In fact, these accidents could have been prevented with the presence of strong safety culture. Based on the review of the history of nuclear power and nuclear safety, this talk examines how safety culture evolved over the years and how it can guide the future of global nuclear power development without repeating the past course of accidents. (author)

Ordeals of Chernobyl and the rejustification of the inherently safe reactors

International Nuclear Information System (INIS)

Lu, Y.

1989-01-01

This paper presents the necessity of developing inherently safe economic reactors (ISERs). Two characteristics which define inherent safety are discussed on the basis of various applications of such a principle in practice. Different design concepts of ISERs are then evaluated and their possible role in the future nuclear program of PRC discussed. A three-stage development strategy of ISERs in PRC is proposed

Ethics and the future of nuclear energy

International Nuclear Information System (INIS)

Alonso, A.

2000-01-01

In democratic societies the future of nuclear energy should be considered as a strategic issue for the country and it should therefore be rationally discussed from every angle, including the moral aspects; within their own political parties, politicians should be leading such discussions. The potentialities of nuclear technology to comply with and respect the human rights, including those of future generations, need to-be evaluated. The social obligation of increasing the well-being of the civil society through the availability of sufficient and reliable electrical energy should be considered a primary condition. The risks associated to nuclear power plants and related activities must be recognized and the nature and functions of regulatory organizations discussed, mainly their independence of judgement. A set of ethical principles regarding communications need to be in place to assure democratic decisions. All concerned parties should participate with the best of the intentions. The human rights of the third generation, those related to the environment, should be given the needed attention, to prevent that the vanguards of the new revolutionary movement of ecologists produce unnecessary victims within the nuclear power plants

Impact of Nuclear Energy Futures on Advanced Fuel Cycle Options

International Nuclear Information System (INIS)

Dixon, B.W.; Piet, S.J.

2004-01-01

The Nuclear Waste Policy Act requires the Secretary of Energy to inform Congress before 2010 on the need for a second geologic repository for spent nuclear fuel. By that time, the spent fuel discharged from current commercial reactors will exceed the statutory limit of the first repository. There are several approaches to eliminate the need for another repository in this century. This paper presents a high-level analysis of these spent fuel management options in the context of a full range of possible nuclear energy futures. The analysis indicates the best option to implement varies depending on the nuclear energy future selected

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)

The future of nuclear power

International Nuclear Information System (INIS)

Corak, Z.

2004-01-01

Energy production and use will contribute to global warming through greenhouse gas emissions in the next 50 years. Although nuclear power is faced with a lot of problems to be accepted by the public, it is still a significant option for the world to meet future needs without emitting carbon dioxide (CO 2 ) and other atmospheric pollutants. In 2002, nuclear power provided approximately 17% of world energy consumption. There is belief that worldwide electricity consumption will increase in the next few years, especially in the developing countries followed by economic growth and social progress. Official forecasts shows that there will be a mere increase of 5% in nuclear electricity worldwide by 2020. There are also predictions that electricity use may increase at 75%. These predictions require a necessity for construction of new nuclear power plants. There are only a few realistic options for reducing carbon dioxide emissions from electricity generation: Increase efficiency in electricity generation and use; Expand use of renewable energy sources such as wind, solar, biomass and geothermal; Capture carbon dioxide emissions at fossil-fuelled electric generating plants and permanently sequester the carbon; Increase use of nuclear power. In spite of the advantages that nuclear power has, it is faced with stagnation and decline today. Nuclear power is faced with four critical problems that must be successfully defeat for the large expansion of nuclear power to succeed. Those problems are cost, safety, waste and proliferation. Disapproval of nuclear power is strengthened by accidents that occurred at Three Mile Island in 1979, at Chernobyl in 1986 and by accidents at fuel cycle facilities in Japan, Russia and in the United States of America. There is also great concern about the safety and security of transportation of nuclear materials and the security of nuclear facilities from terrorist attack. The paper will provide summarized review regarding cost, safety, waste and

Fire protection of safe shutdown capability at commercial nuclear power plants

International Nuclear Information System (INIS)

Sullivan, K.

1993-01-01

The comprehensive industrial safety standards and codes that exist today have evolved from lessons learned through past experience, research results, and improvements in technological capabilities. The current requirements for fire safety features of commercial nuclear power stations operated in the US are a notable example of this practice. Although fire protection has always been an important design requirement, from the aftermath of a serious fire that occurred in 1975 at the Browns Ferry plant, it was learned that the life safety and property protection concerns of the major fire insurance underwriters may not sufficiently encompass nuclear safety issues, particularly with regard to the potential for fire damage to result in the common mode failure of redundant trains of systems, and components important to the safe shutdown of the reactor. Following its investigations into the Browns Ferry fire, the Nuclear Regulatory Commission (NRC) promulgated guidance documents, which ultimately developed into mandatory regulations, necessary to assure the implementation of a fire protection program that would address nuclear safety concerns. The new criteria that evolved, contain prescriptive design features, as well as personnel and administrative requirements the Commission determined to be necessary to provide a defense-in-depth level of protection against the hazards of fire and its associated effects on safety related equipment. These criteria are primarily contained in Appendix R of Title 10 to the Code of Federal Regulations (10 CFR 50). Since 1983, various members of the Department of Nuclear Energy (DNE) at Brookhaven National Laboratory (BNL) have provided technical assistance to the Nuclear Regulatory Commission (NRC) in support of its evaluations of fire protection features implemented at commercial nuclear power stations operated in the US. This paper presents a discussion of the insights gained by the author during his active participation in this area

The regulatory framework for safe decommissioning of nuclear power plants in Korea

International Nuclear Information System (INIS)

Sangmyeon Ahn; Jungjoon Lee; Chanwoo Jeong; Kyungwoo Choi

2013-01-01

We are having 23 units of nuclear power plants in operation and 5 units of nuclear power plants under construction in Korea as of September 2012. However, we don't have any experience on shutdown permanently and decommissioning of nuclear power plants. There are only two research reactors being decommissioned since 1997. It is realized that improvement of the regulatory framework for decommissioning of nuclear facilities has been emphasized constantly from the point of view of IAEA's safety standards. It is also known that IAEA will prepare the safety requirement on decommissioning of facilities; its title is the Safe Decommissioning of Facilities, General Safety Requirement Part 6. According to the result of IAEA's Integrated Regulatory Review Service (IRRS) mission to Korea in 2011, it was recommended that the regulatory framework should require decommissioning plans for nuclear installations to be constructed and operated and these plans should be updated periodically. In addition, after the Fukushima nuclear disaster in Japan in March of 2011, preparedness for early decommissioning caused by an unexpected severe accident became important issues and concerns. In this respect, it is acknowledged that the regulatory framework for decommissioning of nuclear facilities in Korea need to be improved. First of all, we focus on identifying the current status and relevant issues of regulatory framework for decommissioning of nuclear power plants compared to the IAEA's safety standards in order to achieve our goal. And then the plan is established for improvement of regulatory framework for decommissioning of nuclear power plants in Korea. It is expected that if the things will go forward as planned, the revised regulatory framework for decommissioning could enhance the safety regime on the decommissioning of nuclear power plants in Korea in light of international standards. (authors)

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

Nuclear power's changing future - Fastest growth in Asia

International Nuclear Information System (INIS)

2004-01-01

Twenty-two of the last 31 nuclear power plants (NPPs) connected to the world's energy grid have been built in Asia, driven by the pressures of economic growth, natural resource scarcity and increasing populations. Of the new NPPs presently under construction, 18 of the 27 are located in Asia, while construction has virtually halted in Western European and North American countries with long-standing nuclear power programmes, says the International Atomic Energy Agency (IAEA). The IAEA reports that although four Western European countries have decided to shut down their nuclear energy plants, the future of nuclear energy in Europe and North America is still far from clear, during a period when energy needs and concerns over global warming are both rising. Only one new NPP is beginning construction in Western Europe. No new NPPs are planned in North America, although that could change very soon. The Conference examines the status and future of nuclear power 50 years after the first nuclear energy producing plant came o n-line , at a plant near Moscow in the then Soviet Union on June 26, 1954. It covers the following topics: Nuclear Prospects in Near and Long-Term; Nuclear Power Today: Shifting to the East; Climate Change and Economics: Factors for Growth (NPPs Avoid Carbon Emissions, Costs are Low at Operating Plants; New Plants are Expensive); the Key Issues are Safety and Waste management; Uranium resources are abundant; sustainable development

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)

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)

Ethical principles in international nuclear trade and the role of international treaties and agreements in their implementation. Reflections on the future

International Nuclear Information System (INIS)

Cavalanti, C. de A.

1992-01-01

The growing importance of nuclear energy (on the threshold of the twenty-first century) and of its ethical uses is considered, including major political events in recent years, their social and economic consequences in the world scene. International Nuclear Law is seen as the most adequate instrument to promote the ethical uses of nuclear energy on a worldwide basis, so that mankind can benefit safely and properly and improving their living conditions in general. Problems associated with access to nuclear technology, plants, equipments and materials are addressed. Basic principles of international agreements ruling nuclear trade, ethical aspects are also covered. The different markets involved in international nuclear trade and their specific requirements are described. Certain international treaties on the peaceful uses of nuclear energy are discussed such as the Non-Proliferation Treaty and the Tlatelolco Treaty as are international conventions on matters related to the use of nuclear energy, such as the environment and protection of personnel. The author concludes by debating whether ethical uses of nuclear energy are a possible reality or merely utopia. Prospects on the future of international nuclear trade are considered. (author)

Nuclear energy and the IAEA: Fostering the efficient and safe use of nuclear power

International Nuclear Information System (INIS)

Kinley, D. III

2006-05-01

Any discussion of 21st century energy trends must take into account the global energy imbalance. Roughly 1.6 billion people still lack access to modern energy services, and few aspects of development - whether related to living standards, health care or industrial productivity - can take place without the requisite energy supply. As we look to the century before us, the growth in energy demand will be substantial, and 'connecting the unconnected' will be a key to progress. Another challenge will be sustainability; meeting these growing energy needs without creating negative side effects that could compromise the living environment of future generations. Nuclear power is not a 'fix-all', but it will certainly be part of this mix of solutions, and the expectations for the expanding use of nuclear power are rising. In addition to the growth in demand, these expectations are driven by: energy security concerns; nuclear power's low greenhouse gas emissions; and the sustained strong performance of nuclear plants. Each country must make its own energy choices; one size does not fit all. But for those countries interested in making nuclear power part of their sustainable development strategies, the Agency stands ready to offer a broad range of assistance programmes

Nuclear power plants - a solution for the future

International Nuclear Information System (INIS)

Sinn, D.

1978-01-01

This book is not written for experts, but for interested laymen. The arguments in favour of nuclear power plants are presented in an intelligible and critical manner. The problem of nuclear power is reviewed at a moment where the nuclear controversy has even led to lawsuits. Still, there is hope for a secure energy supply - and fear of the risks that the future might bring and which may even endanger our lives. (GL) [de

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

The future of nuclear power

International Nuclear Information System (INIS)

Holzer, J.

1989-01-01

Irrespective of the nuclear controversy which continues undiminished in the Federal Republic of Germany, the future of nuclear power is going to be determined by facts also in this country. Of course, the attitude of people plays an important role in this process, all the more so as it is highly emotionally biased in this matter. However, this attitude may change. Factors which could influence such a swing stem from the growing tendency to weigh the risks of all sources of energy, but also from the attitudes of the partner countries within and outside the European Community. Undoubtedly, also the growing energy requirement of the developing countries will be one of the factors determining the fate of nuclear power in this country. However, a key factor is politics which, after having weighed all possibilities, is required to always create optimal boundary conditions to ensure the long-term prosperity of the population. (orig.) [de

Application of digital solutions to help the safe and efficient operation of nuclear power plants

International Nuclear Information System (INIS)

Ortega P, F.; Fernandez F, S.

2017-09-01

In the search for excellence, the emergence of solutions to digitize nuclear power plants is an opportunity to optimize the operation and safety of them. The new technologies available today in the market, applied under a global vision of the operation, can contribute to the excellent operation of nuclear power plants in terms of efficiency and effectiveness. Tecnatom has a long experience in various areas related to the operation of the plants, giving the aforementioned global vision, essential to develop global solutions that pursue the safe and efficient operation of the operation. (Author)

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).

The future of nuclear weapons in Europe workshop summary

International Nuclear Information System (INIS)

Larsen, J.A.; Garrity, P.J.

1991-12-01

A summary is presented of a workshop that addressed the future of nuclear weapons in Europe. The workshop topics included the evolving European security environment; the Soviet Union, Eastern Europe, and nuclear weapons; the United States, NATO, and nuclear weapons; and Western Europe and nuclear weapons. The workshop, held at Los Alamos July 26, 1991, was sponsored by the Center for National Security Studies of the Los Alamos National Laboratory

International co-operation and the future of nuclear power. European Nuclear Congress '98, Nice, 26 October 1998

International Nuclear Information System (INIS)

ElBaradei, M.

1998-01-01

The document reproduces the text of the conference given by the Director General of the IAEA at the joint Opening Session of the European Nuclear Congress'98 (ENC) and RECOD in Nice, France, on 26 october 1998. The conference emphasized the importance of strengthened international co-operation in all areas relevant to the safe and peaceful use of nuclear energy, especially for power generation. As the only intergovernmental global organization dedicated to nuclear science and technology, the role of the IAEA is to serve as the international focal point for standard setting, independent analysis, technology transfer and oversight and verification

G8 decision on fusion would herald nuclear future

CERN Multimedia

Starck, Peter

2005-01-01

Nuclear fusion as a future abundant energy source would receive a boost if G8 leaders agree next month on the site for the world's first fusion test reactor, two nuclear scientists said on Wednesday (1 page)

Impact of Nuclear Energy Futures on Advanced Fuel Cycle Options

International Nuclear Information System (INIS)

Brent W. Dixon; Steven J. Piet

2004-01-01

The Nuclear Waste Policy Act requires the Secretary of Energy to inform Congress before 2010 on the need for a second geologic repository for spent nuclear fuel. By that time, the spent fuel discharged from current commercial reactors will exceed the statutory limit of the first repository (63,000 MTiHM commercial, 7,000 MT non-commercial). There are several approaches to eliminate the need for another repository in this century. This paper presents a high-level analysis of these spent fuel management options in the context of a full range of possible nuclear energy futures. The analysis indicates the best option to implement varies depending on the nuclear energy future selected. The first step in understanding the need for different spent fuel management approaches is to understand the size of potential spent fuel inventories. A full range of potential futures for domestic commercial nuclear energy is considered. These energy futures are as follows: 1. Existing License Completion - Based on existing spent fuel inventories plus extrapolation of future plant-by-plant discharges until the end of each operating license, including known license extensions. 2. Extended License Completion - Based on existing spent fuel inventories plus a plant-by-plant extrapolation of future discharges assuming on all operating plants having one 20-year extension. 3. Continuing Level Energy Generation - Based on extension of the current ∼100 GWe installed commercial base and average spent fuel discharge of 2100 MT/yr through the year 2100. 4. Continuing Market Share Generation - Based on a 1.8% compounded growth of the electricity market through the year 2100, matched by growing nuclear capacity and associated spent fuel discharge. 5. Growing Market Share Generation - Extension of current nuclear capacity and associated spent fuel discharge through 2100 with 3.2% growth representing 1.5% market growth (all energy, not just electricity) and 1.7% share growth. Share growth results in

A new option for exploitage of future nuclear energy. Accelerator driven radioactive clean nuclear power system

International Nuclear Information System (INIS)

Ding Dazhao

2000-01-01

Nuclear energy is an effective, clean and safe energy resource. But some shortages of the nuclear energy system presently commercial available obstruct further development of the nuclear energy by heavy nuclear fission. Those are final disposal of the high level radioactive waste, inefficient use of the uranium resource and safety issue of the system. Innovative technical option is seeking for by the nuclear scientific community in recent ten years in aiming to overcome these obstacles, namely, accelerator driven sub-critical system (ADS). This hybrid system may bridge over the gap between presently commercial available nuclear power system and the full exploitation of the fusion energy. The basic principle of ADS is described and its capability in waste transmutation, conversion of the nuclear fuel are demonstrated by two examples--AD-fast reactor and AD-heavy water thermal reactor. The feasibility of ADS and some projects in US, Japan, etc are briefly discussed. The rationale in promoting the R and D of ADS in China is emphasized as China is at the beginning stage of its ambitious project in construction of the nuclear power

Future plant of basic research for nuclear energy by university researchers

International Nuclear Information System (INIS)

Shibata, Toshikazu

1984-01-01

National Committee for Nuclear Energy Research, Japan Science Council has completed a future plan for basic nuclear energy research by university researchers. The JSC has recommended the promotion of basic research for nuclear energy based on the plan in 1983. The future plan consists of four main research fields, namely, (1) improvements of reactor safety, (2) down stream, (3) thorium fuel reactors, and (4) applications of research reactor and radioisotopes. (author)

Role of Nuclear Knowledge Infrastructure in Building and Developing a Nuclear Industry

International Nuclear Information System (INIS)

Pershukov, V.

2016-01-01

Full text: Current level of development of nuclear technology pushes future owners and users to address several important challenges at the very beginning of preparation for introduction of nuclear power programme including development of national expertise and technical competence for safe and secure use of nuclear technology and creation of national scientific and research infrastructure. However, many times national stakeholders involved into the development of nuclear power programmes act in separate information environments. This creates confusion and may result in delays of execution of a nuclear power programmes. A common environment in this case is important to ensure information exchange and collaborative work on nuclear power programme development. A common environment facilitates transfer, preservation and spread of nuclear knowledge to all stakeholders involved in a national nuclear power programme. Due to the long life cycle of nuclear power plants, strengthening and maintaining the effective management of knowledge and information over the entire life cycle for licensed nuclear facilities is imperative. This covers areas including design, construction, commissioning, operation and decommissioning, especially in newcomer countries and new builds. Nuclear knowledge infrastructure assumes this role and helps countries deciding to develop nuclear programmes ensure the safe and secure use of its nuclear power for national development. (author

Nuclear power: on the razor's edge

International Nuclear Information System (INIS)

Udall, M.K.

1979-01-01

Congressman Udall, who concedes he has sometimes entertained serious doubts about the viability of the nuclear power industry, discusses the future he foresees for nuclear energy as a source of electricity for U.S. consumers. In spite of misgivings about the dangers and economic uncertainties, he sees it as a bridge between an era of fast depletion of fossil fuels and a future era when reliance may be placed on renewable energy technologies. Nuclear energy, he feels, must be given a chance during the transitional period to prove it is a safe, dependable, and affordable source of commerical energy

Personal training and others problems in the nuclear power future development

International Nuclear Information System (INIS)

Stefanescu, P.

2009-01-01

For satisfaction of international growing demand for electrical energy it is impossible to ignore contribution of nuclear power. With an expected lifespan for nuclear plants estimated to 50-60 years of operation (years for decommissioning added), there is a need for a steady multi-generational stream of competent staff to ensure safe operations of nuclear plants. It is incumbent to governments to invest in education, research, and training for the three to five generations of people who will construct, operate and eventually decommission nuclear plants over the duration of their life cycle. To develop sustained nuclear programs it is necessary to carry out a lot of major problems, but three of them look like as most important: 1. Training a qualified and competent personal to ensure all nuclear activities; 2. Multilateral approach for nuclear fuel cycle, with a guaranteed framework for ensuring the supply of NPP owners with the necessary nuclear fuel; 3. Strengthening the international trust by a sure safeguards and non-proliferation regime. (author)

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.)

A level III PSA for the inherently safe CAREM-25 nuclear power station

International Nuclear Information System (INIS)

Baron, Jorge H.; Nunez McLeod, J.; Rivera, S.S.

2000-01-01

A Level III PSA has been performed for the inherently safe CAREM-25 nuclear power station, as a requirement for licensing according to argentinian regulations. The CAREM-25 project is still at a detailed design state, therefore only internal events have been considered, and a representative site has been assumed for dose estimations. Several conservative hypothesis have been formulated, but even so an overall core melt frequency of 2.3E -5 per reactor year has been obtained. The risk estimations comply with the regulations. The risk values obtained are compared to the 700MW(e) nuclear power plant Atucha II PSA result, showing an effective risk reduction not only in the severe accident probability but alto in the consequence component of the risk estimation. (author)

Safe operation of existing radioactive waste management facilities at Dalat Nuclear Research Institute

International Nuclear Information System (INIS)

Pham Van Lam; Ong Van Ngoc; Nguyen Thi Nang

2000-01-01

The Dalat Nuclear Research Reactor was reconstructed from the former TRIGA MARK-II in 1982 and put into operation in March 1984. The combined technology for radioactive waste management was newly designed and put into operation in 1984. The system for radioactive waste management at the Dalat Nuclear Research Institute (DNRI) consists of radioactive liquid waste treatment station and disposal facilities. The treatment methods used for radioactive liquid waste are coagulation and precipitation, mechanical filtering and ion- exchange. Near-surface disposal of radioactive wastes is practiced at DNRI In the disposal facilities eight concrete pits are constructed for solidification and disposal of low level radioactive waste. Many types of waste generated in DNRI and in some Nuclear Medicine Departments in the South of Vietnam are stored in the disposal facilities. The solidification of sludge has been done by cementation. Hydraulic compactor has done volume reduction of compatible waste. This paper presents fifteen-years of safe operation of radioactive waste management facilities at DNRI. (author)

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)

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

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)

Current assessment and future potential of the international nuclear market

International Nuclear Information System (INIS)

Cassidy, P.R.

1983-01-01

This is a study of the current and future situation of the international nuclear market. This paper highlights the projections as seen not only by Bechtel Power Corporation, but also by the international nuclear community. It covers in particular the electric power growth projection; the percentage of probable nuclear power generation; operating services for existing nuclear power plants; and the nuclear fuel cycle. (NEA) [fr

Fire protection of safe shutdown capability at commercial nuclear power plants

International Nuclear Information System (INIS)

Sullivan, K.

1993-01-01

The comprehensive industrial safety standards and codes that exist today have evolved from lessons learned through past experience, research results, and improvements in technological capabilities. The current requirements for fire safety features of commercial nuclear power stations operated in the U.S. are a notable example of this practice. Although fire protection has always been an important design requirement, from the aftermath of a serious fire that occurred in 1975 at the Browns Ferry plant, it was learned that the life safety and property protection concerns of the major fire insurance underwriters may not sufficiently encompass nuclear safety issues, particularly with regard to the potential for fire damage to result in the common mode failure of redundant trains of systems, and composites important to the safe shutdown of the reactor. Following its investigations into the Browns Ferry fire, the Nuclear Regulatory Commission (NRC) promulgated guidance documents, which ultimately developed into mandatory regulations, necessary to assure the implementation of a fire protection program that would address nuclear safety concerns. The new criteria that evolved, contain prescriptive design features, as well as personnel and administrative requirements the Commission determined to be necessary to provide a defense-in-depth level of protection against the hazards of fire and its associated effects on safety related equipment. These criteria are primarily contained in Appendix R of Title 10 to the Code of Federal Regulations (10 CFR 50)

Nuclear energy's contribution to the city of the future

International Nuclear Information System (INIS)

Grant, P.M.

2005-01-01

The author tables his ideas for a communal energy economy which would meet the needs of a densely populated industrialised society. Accommodating the highest levels of environmental, aesthetic, safe, reliable, efficient and secure engineering practice, the solution provided requires no new scientific discoveries. By bringing together existing technologies - a symbiosis of Nuclear Power/Hydrogen/Superconductivity - the author develops the concept of the SuperCity. (author)

Safe Operation of Nuclear Power Plants: Impacts of Human and Organisational Factors and Emerging Technologies

International Nuclear Information System (INIS)

2001-01-01

In co-operation with the OECD Nuclear Energy Agency (NEA), the Halden Reactor Project organised a Summer School on ''Safe Operation of Nuclear Power Plants: Impacts of Human and Organisational Factors and Emerging Technologies'' in the period August 27-August 31, 2001. The Summer School was intended for scientists, engineers and technicians working for nuclear installations, engineering companies, industry and members of universities and research institutes, who wanted to broaden their nuclear background by getting acquainted with Man-Technology-Organisation-related subjects and issues. The Summer School should also serve to transfer knowledge to the ''young generation'' in the nuclear field. The following presentations were given: (1) Overview of the Nuclear Community and Current issues, (2) The Elements of Safety Culture; Evaluation of Events, (3) Quality Management (QM), (4) Probabilistic Risk Assessment (PSA), (5) Human Behaviour from the Viewpoint of Industrial Psychology, (6) Technical tour of the Halden Project Experimental Facilities, (7) Human Factors in Control Room Design, (8) Computerised Operator Support Systems (COSSs) and (9) Artificial Intelligence; a new Approach. Most of the contributions are overhead figures from spoken lectures

Safe Operation of Nuclear Power Plants: Impacts of Human and Organisational Factors and Emerging Technologies

Energy Technology Data Exchange (ETDEWEB)

NONE

2001-07-01

In co-operation with the OECD Nuclear Energy Agency (NEA), the Halden Reactor Project organised a Summer School on ''Safe Operation of Nuclear Power Plants: Impacts of Human and Organisational Factors and Emerging Technologies'' in the period August 27-August 31, 2001. The Summer School was intended for scientists, engineers and technicians working for nuclear installations, engineering companies, industry and members of universities and research institutes, who wanted to broaden their nuclear background by getting acquainted with Man-Technology-Organisation-related subjects and issues. The Summer School should also serve to transfer knowledge to the ''young generation'' in the nuclear field. The following presentations were given: (1) Overview of the Nuclear Community and Current issues, (2) The Elements of Safety Culture; Evaluation of Events, (3) Quality Management (QM), (4) Probabilistic Risk Assessment (PSA), (5) Human Behaviour from the Viewpoint of Industrial Psychology, (6) Technical tour of the Halden Project Experimental Facilities, (7) Human Factors in Control Room Design, (8) Computerised Operator Support Systems (COSSs) and (9) Artificial Intelligence; a new Approach. Most of the contributions are overhead figures from spoken lectures.

Importance of safety review to the safe operation of a nuclear plant

International Nuclear Information System (INIS)

Brinkerhoff, L.C.

1978-01-01

Widely differing standards of construction of nuclear reactors are employed in different countries. Although the reactor vendors, including designers and construction contractors, have a vested interest in safety, the ultimate responsibility for safety rests with the reactor facility operator. Even though governmental agencies, either directly or indirectly, must take a strong lead in developing policies and practices of safe operation, the reactor facility operator must recognize and accept the full responsibility for safe operation of the facility. The policies and practices of safe operation imposed by governmental agencies must help assure the prudent operation and the adequate maintenance of those structures, systems, and components of importance to safety. Since each country has a slightly different philosophy for achieving safety and each vendor utilizes different structures, systems, and components to fulfil this philosophy, it is imperative that the facility operator adequately maintain those engineered safety features and those plant protective systems which have been engineered into achieving the desired levels of safety. An additional method of helping to assure that those structures, systems, and components of importance to safety are prudently operated and adequately maintained is to assign the full safety responsibility for the overall operations of the reactor facility to the operating organization, i.e. assigning a 'line of responsibility' within the reactor facility operator. This assurance can be further strengthened by requiring that the facility operator establish a safety review body that overviews the operation and assures that the operating organization complies with those policies and practices of safe operation which have been imposed on the reactor facility. (author)

Safeguards Practices and Future Challenges for Peaceful Use of Nuclear Energy in Bangladesh

International Nuclear Information System (INIS)

Islam, M.S.; Chowdhury, M.D.A.; Kibria, A.F.; Alam, H.B.

2015-01-01

Nuclear material and different category of radiation sources are being used in industries, R&D & education purposes. All of them are used for human welfare and economic uplift of the country. Prior to use, Bangladesh has firmly committed for the peaceful use of nuclear energy in a safe, secured and non-proliferation manner. Bangladesh has regularly provided credible assurance about the non-diversion of nuclear material as well as the absence of undeclared material and activities to the international community by fulfiling the obligations under the NPT and Comprehensive Safeguards Agreements (CSA) over the last 35 years. IAEA approved the State Level Safeguards Approach (SLA) for Bangladesh on 1 December, 2006 and consequently Bangladesh entered into the Integrated Safeguards (IS) regime on 1 January, 2007. The Government of Bangladesh enacted a comprehensive nuclear law titled ''Bangladesh Atomic Energy Regulatory (BAER) Act-2012'' and under this act established ''Bangladesh Atomic Energy Regulatory Authority (BAERA)'' in February 2013 to regulate all nuclear activities and to fulfil its international obligations. Furthermore, Bangladesh has signed agreements with Russia for setting up two 1000 MWe generation-III VVER type power reactors. During the INIR missions conducted by IAEA, the team identified some gaps and then recommended to develop, implement and to enforce of safeguards framework including strengthening the SSAC's oversight capability embarking the first nuclear power program in the country. Bangladesh is working on legal and regulatory requirements in adopting the VVER technology into the BAER Act-2012 related to safeguards. The purpose of this paper is to present an overview of country's practices in implementing the IAEA safeguards and also to provide with an in-depth look at the legislations, regulations and facility procedures for strengthening the safeguards infrastructure and to identify future

Materials for passively safe reactors

International Nuclear Information System (INIS)

Simnad, T.

1993-01-01

Future nuclear power capacity will be based on reactor designs that include passive safety features if recent progress in advanced nuclear power developments is realized. There is a high potential for nuclear systems that are smaller and easier to operate than the current generation of reactors, especially when passive or intrinsic characteristics are applied to provide inherent stability of the chain reaction and to minimize the burden on equipment and operating personnel. Taylor, has listed the following common generic technical features as the most important goals for the principal reactor development systems: passive stability, simplification, ruggedness, case of operation, and modularity. Economic competitiveness also depends on standardization and assurance of licensing. The performance of passively safe reactors will be greatly influenced by the successful development of advanced fuels and materials that will provide lower fuel-cycle costs. A dozen new designs of advanced power reactors have been described recently, covering a wide spectrum of reactor types, including pressurized water reactors, boiling water reactors, heavy-water reactors, modular high-temperature gas-cooled reactors (MHTGRs), and fast breeder reactors. These new designs address the need for passive safety features as well as the requirement of economic competitiveness

Future directions in nuclear data publication

International Nuclear Information System (INIS)

Firestone, R.B.; Chu, S.Y.F.; Ekstroem, L.P.; Nordberg, H.

1997-01-01

Rapid advances in computer based technologies provide enormous opportunities and great challenges to the way nuclear data is disseminated. Simple text databases and linear, command driven software are giving way to more complex, indexed databases and object-oriented, menu-driven applications. The Internet will clearly dominate dissemination of nuclear data in for foreseeable future, and CD-ROM technology (or similar high-density media) will replace hard-copy publication. The Isotopes Project has released Version 1.0 of VuENSDF, a versatile, 32-bit, C ++ , Internet enabled application for disseminating nuclear data. VuENSDF can automatically retrieve data over Internet; display decay scheme drawings, level tables, and references; and perform limited database searching of nuclear bands, transition coincidences, and reference authors. Version 2.0 of VuENSDF is being developed and will offer more complete database searches, plotting, and data entry utilities. The Isotopes Project has established a series of home pages on the WWW to provide data for various topics of nuclear physics. The group has also published a CD-ROM version of the Table of Isotopes using Adobe Acrobat software. Updated, Internet versions of the Table of Isotopes are planned. (author)

Therapeutic nuclear medicine

International Nuclear Information System (INIS)

Baum, Richard P.

2014-01-01

Discusses all aspects of radionuclide therapy, including basic principles, newly available treatments, regulatory requirements, and future trends. Provides the knowledge required to administer radionuclide therapy safely and effectively in the individual patient. Explains the role of the therapeutic nuclear physician in effectively coordinating a diverse multidisciplinary team. Written by leading experts. The recent revolution in molecular biology offers exciting new opportunities for targeted radionuclide therapy. The selective irradiation of tumor cells through molecular biological mechanisms is now permitting the radiopharmaceutical control of tumors that are unresectable and unresponsive to either chemotherapy or conventional radiotherapy. In this up-to-date, comprehensive book, world-renowned experts discuss the basic principles of radionuclide therapy, explore in detail the available treatments, explain the regulatory requirements, and examine likely future developments. The full range of clinical applications is considered, including thyroid cancer, hematological malignancies, brain tumors, liver cancer, bone and joint disease, and neuroendocrine tumors. The combination of theoretical background and practical information will provide the reader with all the knowledge required to administer radionuclide therapy safely and effectively in the individual patient. Careful attention is also paid to the important role of the therapeutic nuclear physician in delivering the effective coordination of a diverse multidisciplinary team that is essential to the safe provision of treatment.

Therapeutic nuclear medicine

Energy Technology Data Exchange (ETDEWEB)

Baum, Richard P. (ed.) [ENETS Center of Excellence, Bad Berka (Germany). THERANOSTICS Center for Molecular Radiotherapy and Molecular Imaging

2014-07-01

Discusses all aspects of radionuclide therapy, including basic principles, newly available treatments, regulatory requirements, and future trends. Provides the knowledge required to administer radionuclide therapy safely and effectively in the individual patient. Explains the role of the therapeutic nuclear physician in effectively coordinating a diverse multidisciplinary team. Written by leading experts. The recent revolution in molecular biology offers exciting new opportunities for targeted radionuclide therapy. The selective irradiation of tumor cells through molecular biological mechanisms is now permitting the radiopharmaceutical control of tumors that are unresectable and unresponsive to either chemotherapy or conventional radiotherapy. In this up-to-date, comprehensive book, world-renowned experts discuss the basic principles of radionuclide therapy, explore in detail the available treatments, explain the regulatory requirements, and examine likely future developments. The full range of clinical applications is considered, including thyroid cancer, hematological malignancies, brain tumors, liver cancer, bone and joint disease, and neuroendocrine tumors. The combination of theoretical background and practical information will provide the reader with all the knowledge required to administer radionuclide therapy safely and effectively in the individual patient. Careful attention is also paid to the important role of the therapeutic nuclear physician in delivering the effective coordination of a diverse multidisciplinary team that is essential to the safe provision of treatment.

Some political issues related to future special nuclear materials production

International Nuclear Information System (INIS)

Peaslee, A.T. Jr.

1981-08-01

The Federal Government must take action to assure the future adequate supply of special nuclear materials for nuclear weapons. Existing statutes permit the construction of advanced defense production reactors and the reprocessing of commercial spent fuel for the production of special materials. Such actions would not only benefit the US nuclear reactor manufacturers, but also the US electric utilities that use nuclear reactors

Which future for the nuclear counter-proliferation?

International Nuclear Information System (INIS)

Duval, M.

2004-01-01

After a recall of the permanent data about proliferation and of the safeguards implemented by the international community, the author demonstrates that proliferation has moved towards Asia where a real 'black market' has been created. Then he analyzes the consequences of this change on the future of nuclear deterrent. Finally, he expresses his nostalgia in front of this drift and worries about the future uselessness of the means devoted to this 'pacifying' strategy. (J.S.)

Summary remarks and future prospects for on-line nuclear orientation

International Nuclear Information System (INIS)

Krane, K.S.; Hamilton, J.H.

1984-01-01

Results from various groups which use on-line low temperature nuclear orientation techniques are presented. Several nuclear parameters have been successfully studied: rotational levels, nuclear deformation, and decay modes. Future prospects include multiparameter analysis, relaxation and pre-orientation, new separators, and alpha decay studies. 33 refs., 5 figs

Current Status and Future Perspective of Nuclear Cardiology

International Nuclear Information System (INIS)

Chung, June Key

2009-01-01

Coronary artery disease is on the rise over the world. Myocardial perfusion SPECT is a well established technique to detect coronary artery disease and to assess left ventricular function. In addition, it has the unique ability to predict the prognosis of the patients. Moreover, the application of ECG-gated images provided the quantitative data and improved the accuracy. This approach has been proved to be cost-effective and suitable for the emerging economies as well as developed countries. However, the utilization of nuclear cardiology procedures vary widely considering the different countries and region of the world. Korea exits 2-3 times less utilization than Japan, and 20 times than the United States. Recently, with the emerging of new technology, namely cardiac CT, cardiac MR and stress echocardiography, the clinical usefulness of nuclear cardiology has been called in question and its role has been redefined. For the proper promotion of nuclear cardiology, special educations should be conducted since the nuclear cardiology has the contact points between nuclear medicine and cardiology. Several innovations are in horizon which will impact the diagnostic accuracy as well as imaging time and cost savings. Development of new tracers, gamma camera technology and hybrid systems will open the new avenue in cardiac imaging. The future of nuclear cardiology based on molecular imaging is very exciting. The newly defined biologic targets involving atherosclerosis and vascular vulnerability will allow the answers for the key clinical questions. Hybrid techniques including SPECT/CT indicate the direction in which clinical nuclear cardiology may be headed in the immediate future. To what extent nuclear cardiology will be passively absorbed by other modalities, or will actively incorporate other modalities, is up to the present and next generation of nuclear cardiologists

Current Status and Future Perspective of Nuclear Cardiology

Energy Technology Data Exchange (ETDEWEB)

Chung, June Key [Seoul National University College of Medicine, Seoul (Korea, Republic of)

2009-06-15

Coronary artery disease is on the rise over the world. Myocardial perfusion SPECT is a well established technique to detect coronary artery disease and to assess left ventricular function. In addition, it has the unique ability to predict the prognosis of the patients. Moreover, the application of ECG-gated images provided the quantitative data and improved the accuracy. This approach has been proved to be cost-effective and suitable for the emerging economies as well as developed countries. However, the utilization of nuclear cardiology procedures vary widely considering the different countries and region of the world. Korea exits 2-3 times less utilization than Japan, and 20 times than the United States. Recently, with the emerging of new technology, namely cardiac CT, cardiac MR and stress echocardiography, the clinical usefulness of nuclear cardiology has been called in question and its role has been redefined. For the proper promotion of nuclear cardiology, special educations should be conducted since the nuclear cardiology has the contact points between nuclear medicine and cardiology. Several innovations are in horizon which will impact the diagnostic accuracy as well as imaging time and cost savings. Development of new tracers, gamma camera technology and hybrid systems will open the new avenue in cardiac imaging. The future of nuclear cardiology based on molecular imaging is very exciting. The newly defined biologic targets involving atherosclerosis and vascular vulnerability will allow the answers for the key clinical questions. Hybrid techniques including SPECT/CT indicate the direction in which clinical nuclear cardiology may be headed in the immediate future. To what extent nuclear cardiology will be passively absorbed by other modalities, or will actively incorporate other modalities, is up to the present and next generation of nuclear cardiologists.

Managing Nuclear Knowledge: connecting past and future

International Nuclear Information System (INIS)

Ruyssen, M.-L.

2006-01-01

Since several years SCKoCEN has acknowledged the importance of Nuclear Knowledge Management. In recent years, a number of trends have drawn attention to the need for better management of nuclear knowledge. At the Lisbon European Council in 2000 the role of RandD was recognized as the driving force for a competitive and dynamic knowledge-based economy and linked to the economy's capacity to turn new knowledge into technological innovation. Knowledge management (KM) is therefore becoming more and more critical to exploit RandD results effectively and expect sufficient returns to balance the risk inherent in the large investments required by today's nuclear research. The SCK-CEN practical approach towards Nuclear Knowledge Management is twofold. First, the capture of tacit knowledge before the loss of key individuals as well as the preservation of various knowledge repositories address the complex issues of aging of the nuclear workforce and reduction of the number of students taking nuclear subjects. Secondly, the set up of education networks at international level aims to prevent further dilution of nuclear education and training programmes while pooling nuclear research resources in order to meet future requirements for qualified nuclear staff. Knowledge management combines therefore different sources of information with human knowledge capital

Waste management strategy for nuclear fusion power systems from a regulatory perspective

Energy Technology Data Exchange (ETDEWEB)

Heckman, R.A.

1977-12-06

A waste management strategy for future nuclear fusion power systems is developed using existing regulatory methodology. The first step is the development of a reference fuel cycle. Next, the waste streams from such a facility are identified. Then a waste management system is defined to safely handle and dispose of these wastes. The future regulator must identify the decisions necessary to establish waste management performance criteria. The data base and methodologies necessary to make these decisions must then be developed. Safe management of nuclear fusion wastes is not only a technological challenge, but encompasses significant social, political, and ethical questions as well.

Waste management strategy for nuclear fusion power systems from a regulatory perspective

International Nuclear Information System (INIS)

Heckman, R.A.

1977-01-01

A waste management strategy for future nuclear fusion power systems is developed using existing regulatory methodology. The first step is the development of a reference fuel cycle. Next, the waste streams from such a facility are identified. Then a waste management system is defined to safely handle and dispose of these wastes. The future regulator must identify the decisions necessary to establish waste management performance criteria. The data base and methodologies necessary to make these decisions must then be developed. Safe management of nuclear fusion wastes is not only a technological challenge, but encompasses significant social, political, and ethical questions as well

Nuclear fusion and its large potential for the future world energy supply

Directory of Open Access Journals (Sweden)

Ongena Jef

2016-12-01

Full Text Available An overview of the energy problem in the world is presented. The colossal task of ‘decarbonizing’ the current energy system, with ~85% of the primary energy produced from fossil sources is discussed. There are at the moment only two options that can contribute to a solution: renewable energy (sun, wind, hydro, etc. or nuclear fission. Their contributions, ~2% for sun and wind, ~6% for hydro and ~5% for fission, will need to be enormously increased in a relatively short time, to meet the targets set by policy makers. The possible role and large potential for fusion to contribute to a solution in the future as a safe, nearly inexhaustible and environmentally compatible energy source is discussed. The principles of magnetic and inertial confinement are outlined, and the two main options for magnetic confinement, tokamak and stellarator, are explained. The status of magnetic fusion is summarized and the next steps in fusion research, ITER and DEMO, briefly presented.

Future perspective of cost for nuclear power generation

International Nuclear Information System (INIS)

Maeda, Ichiro

1988-01-01

The report presents and discussed results of evaluation of the cost for power generation in this and forthcoming years on the basis of an analysis of the current fuel prices and the economics of various power sources. Calculations show that nuclear power generation at present is inferior to coal-firing power generation in terms of required costs, but can become superior in the future due to an increased burn-up and reduced construction cost. Investigations are made of possible contributions of future technical improvements to reduction in the overall cost. Results suggest that nuclear power generation will be the most efficient among the various electric sources because of its technology-intensive feature. Development of improved light water reactors is of special importance to achieve a high burn-up and reduced construction costs. In general, the fixed cost accounts for a large part of the overall nuclear power generation cost, indicating that a reduction in construction cost can greatly increase the economic efficiency. Changes in the yen's exchange rate seem to have little effect on the economics of nuclear power generation, which represents another favorable aspect of this type of energy. (Nogami, K.)

Securing India's energy future

International Nuclear Information System (INIS)

Raghuraman, V.

2009-01-01

India's development aspirations are challenged by energy security and climate change considerations. The integrated energy policy clearly deliberates the need to intensify all energy options with emphasis on maximizing indigenous coal production, harnessing hydropower, increasing adoption of renewables, intensifying hydrocarbon exploration and production and anchoring nuclear power development to meet the long-term requirements. The report also emphasizes the need to secure overseas hydrocarbon and coal assets. Subsequently the National Action Plan on climate change has underscored the need to wean away from fossil fuels, the ambitious National Solar Mission is a case in point. Ultimately securing India's energy future lies in clean coal, safe nuclear and innovative solar. Coal is the key energy option in the foreseeable future. Initiatives are needed to take lead role in clean coal technologies, in-situ coal gasification, tapping coal bed methane, coal to liquids and coal to gas technologies. There is need to intensify oil exploration by laying the road-map to open acreage to unlock the hydrocarbon potential. Pursue alternate routes based on shale, methane from marginal fields. Effectively to use oil diplomacy to secure and diversify sources of supply including trans-national pipelines and engage with friendly countries to augment strategic resources. Technologies to be accessed and developed with international co-operation and financial assistance. Public-Private Partnerships, in collaborative R and D projects need to be accelerated. Nuclear share of electricity generation capacity to be increased 6 to 7% of 63000 MW by 2031-32 and further to 25% (300000 MW) capacity by 2050 is to be realized by operationalizing the country's thorium programme. Nuclear renaissance has opened up opportunities for the Indian industry to meet not only India's requirements but also participate in the global nuclear commerce; India has the potential to emerge as a manufacturing hub

Regulatory requirements on management of radioactive material safe transport in China

International Nuclear Information System (INIS)

Chu, C.

2016-01-01

Since 1980s, the IAEA Regulation for safe transport of radioactive material was introduced into China; the regulatory system of China began with international standards, and walked towards the institutionalized. In 2003 the National People’s Congress (NPC) promulgated “the Act on the Prevention of Radioactive Pollution of the People's Republic of China”. In 2009 “Regulation for the Safe Transport of Radioactive Material” (Referred to “Regulation”) was promulgated by the State Council. Subsequently, the National Nuclear Safety Administration (NNSA) began to formulate executive detailed department rules, regulations guidelines and standards. The present system of acts, regulations and standards on management of safe transport of radioactive material in China and future planning were introduced in this paper. Meanwhile, the paper described the specific administration requirements of the Regulation on classification management of radioactive materials, license management of transport packaging including design, manufacture and use, licensing management of transport activities and the provisions of illegal behaviors arising in safe transport of radioactive material. (author)

The need for nuclear power. Viewpoint on the world's challenging energy future

International Nuclear Information System (INIS)

Rhodes, R.; Beller, D.

2000-01-01

To meet the world's growing need for energy, the Royal Society and Royal Academy report proposes 'the formation of an international body for energy research and development, funded by contributions from individual nations on the basis of Gross Domestic Product (GDP) or total national energy consumption'. The body would be 'a funding agency supporting research, development and demonstrators elsewhere, not a research center itself'. Its budget might build to an annual level of some $25 billion, 'roughly 1% of the total global energy budget'. If it truly wants to develop efficient and responsible energy supplies, such a body should focus on the nuclear option, on establishing a secure international nuclear-fuel storage and reprocessing system, and on providing expertise for siting, financing, and licensing modular nuclear power systems to developing nations. According to authors, who study the dynamics of energy technologies, 'the share of energy supplied by electricity is growing rapidly in most countries and worldwide'. Throughout history, humankind has gradually decarbonized its dominant fuels, moving steadily away from the more polluting, carbon-rich sources. Thus the world has gone from coal (which has one hydrogen atom per carbon atom and was dominant from 1880 to 1950) to oil (with two hydrogens per carbon, dominant from 1950 to today). Natural gas (four hydrogens per carbon) is steadily increasing its market share. But nuclear fission produces no carbon at all. Physical reality - not arguments about corporate greed, hypothetical risks, radiation exposure, or waste disposal - ought to inform decisions vital to the future of the world. Because diversity and redundancy are important for safety and security, renewable energy sources ought to retain a place in the energy economy of the century to come. But nuclear power should be central. Despite its outstanding record, it has instead been relegated by its opponents to the same twilight zone of contentious

Nuclear analytical methods: Past, present and future

International Nuclear Information System (INIS)

Becker, D.A.

1996-01-01

The development of nuclear analytical methods as an analytical tool began in 1936 with the publication of the first paper on neutron activation analysis (NAA). This year, 1996, marks the 60th anniversary of that event. This paper attempts to look back at the nuclear analytical methods of the past, to look around and to see where the technology is right now, and finally, to look ahead to try and see where nuclear methods as an analytical technique (or as a group of analytical techniques) will be going in the future. The general areas which the author focuses on are: neutron activation analysis; prompt gamma neutron activation analysis (PGNAA); photon activation analysis (PAA); charged-particle activation analysis (CPAA)

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.)

Nuclear energy - option for the future. Proceedings

International Nuclear Information System (INIS)

1996-01-01

The goal of this conference was to analyse the future national and international problems arising with energy supplies with regard to the large mass flows and CO 2 flows involved in the use of nuclear energy. The following topics are dealt with: - nuclear energy, world-wide energy management and developments in Europe and Asia - disposal and ultimate waste disposal, plutonium management, an assessment of the Chernobyl accident 10 years on - new reactor developments in the energy mix - the costs arising with nuclear energy in the energy mix. In view of the demand made by climate researchers, to reduce CO 2 , and the additional construction work planned in the eastern and Asian areas, it will remain necessary for the Federal Republic of Germany,too, to maintain the know-how and technology for nuclear energy generation. (orig./DG)

Research in nuclear chemistry: current status and future perspectives

International Nuclear Information System (INIS)

Reddy, A.V.R.

2007-01-01

Research in nuclear chemistry has seen a huge growth over the last few decades. The large umbrella of nuclear chemistry includes several research areas such as nuclear fission, reactions, spectroscopy, nuclear probes and nuclear analytical techniques. Currently, nuclear chemistry research has extended its horizon into various applications like nuclear medicine, isotopes for understanding physico chemical processes, and addressing environmental and biomedical problems. Tremendous efforts are going on for synthesizing new elements (isotopes), isolating physically or chemically wherever possible and investigating their properties. Theses studies are useful to understand nuclear and chemical properties at extreme ends of instability. In addition, nuclear chemists are making substantial contribution to astrophysics and other related areas. During this talk, a few of the contributions made by nuclear chemistry group of BARC will be discussed and possible future areas of research will be enumerated. (author)

The transports of nuclear fuel cycle: An essential activity, safely managed

International Nuclear Information System (INIS)

Lenail, B.; Savornin, B.; Curtis, H.W.

1989-01-01

Transports associated with the nuclear fuel cycle normally use public means of transport by rail, road, sea and air and it might therefore be expected that they would be the Achilles heel of the cycle from a safety point of view. In fact, despite a few minor accidents, no radioactive releases resulting in a significant exposure of the public or the environment have occurred. On the other hand, during the last quarter, the news media have reported major spillages of crude oil and chemicals of high toxicity which have jeopardized the environment, the explosion of gas tankers with dozens of fatalities, and even the sinking of a nuclear submarine. All reports show that the radiation exposure to the public resulting from transports is negligible, i.e., far below 1% of that due to the whole nuclear industry. Similarly, the radiation exposure of transport workers has been lower than anticipated over several decades. The demonstrations and attacks by opponents of the nuclear industry against transports have been limited and have been used as an attempt to freeze the activity of different plants or disposal sites, and to focus public attention on the nuclear issue, rather than to question the fuel cycle transports themselves or the safety principles ruling them. When looking for explanations of such a favorable situation, which they should endeavour to perpetuate, without being surprised if any incident occurs, one finds two major reasons: First, the awareness by the fuel cycle operators, of the vital importance of a safe and reliable implementation of the necessary transports. Secondly, the results of assessments of safety conducted by international organizations and most countries, which have resulted in detailed international recommendations, as well as uniform national and modal regulations, thus establishing the necessary link between the basic rules for radioprotection and the needs of the Transport Industry

Design, qualification and operation of nuclear rockets for safe Mars missions

International Nuclear Information System (INIS)

Buden, D.; Madsen, W.W.; Olson, T.S.; Redd, L.R.

1993-01-01

Nuclear thermal propulsion modules planned for use on crew missions to Mars improve mission reliability and overall safety of the mission. This, as well as all other systems, are greatly enhanced if the system specifications take into account safety from design initiation, and operational considerations are well thought through and applied. For instance, the use of multiple engines in the propulsion module can lead to very high system safety and reliability. Operational safety enhancements may include: the use of multiple perigee burns, thus allowing time to ensure that all systems are functioning properly prior to departure from Earth orbit; the ability to perform all other parts of the mission in a degraded mode with little or no degradation of the mission; and the safe disposal of the nuclear propulsion module in a heliocentric orbit out of the ecliptic plane. The standards used to qualify nuclear rockets are one of the main cost drivers of the program. Concepts and systems that minimize cost and risk will rely on use of the element and component levels to demonstrate technology readiness and validation. Subsystem or systems testing then is only needed for verification of performance. Also, these will be the safest concepts because they will be more thoroughly understood and the safety margins will be well established and confirmed by tests

On the selfacting safe limitation of fission power and fuel temperature in innovative nuclear reactors

International Nuclear Information System (INIS)

Scherer, W.; Brockmann, H.; Drecker, S.; Gerwin, H.; Haas, K.A.; Kugeler, K.; Ohlig, U.; Ruetten, H.J.; Teuchert, E.; Werner, H.; Wolf, L.

1994-08-01

Nuclear energy probably will not contribute significantly to the future worldwide energy supply until it can be made catastrophe-free. Therefore it has to be shown, that the consequences of even largest accidents will have no major impact to the environment of a power plant. In this paper one of the basic conditions for such a nuclear technology is discussed. Using mainly the modular pebble-bed high-temperature reactor as an example, the design principles, analytical methods and the level of knowledge as given today in controlling reactivity accidents by inherent safety features of innovative nuclear reactors are described. Complementary possibilities are shown to reach this goal with systems of different types of construction. Questions open today and resulting requirements for future activities are discussed. Today's knowledge credibly supports the possibility of a catastrophe-free nuclear technology with respect to reactivity events. (orig.)

Safe Operation of Nuclear Power Plants: Impacts of Human and Organisational Factors and Emerging Technologies

Energy Technology Data Exchange (ETDEWEB)

NONE

2001-07-01

In co-operation with the OECD Nuclear Energy Agency (NEA), the Halden Reactor Project organised a Summer School on ''Safe Operation of Nuclear Power Plants: Impacts of Human and Organisational Factors and Emerging Technologies'' in the period August 27-August 31, 2001. The Summer School was intended for scientists, engineers and technicians working for nuclear installations, engineering companies, industry and members of universities and research institutes, who wanted to broaden their nuclear background by getting acquainted with Man-Technology-Organisation-related subjects and issues. The Summer School should also serve to transfer knowledge to the ''young generation'' in the nuclear field. The following presentations were given: (1) Overview of the Nuclear Community and Current issues, (2) The Elements of Safety Culture; Evaluation of Events, (3) Quality Management (QM), (4) Probabilistic Risk Assessment (PSA), (5) Human Behaviour from the Viewpoint of Industrial Psychology, (6) Technical tour of the Halden Project Experimental Facilities, (7) Human Factors in Control Room Design, (8) Computerised Operator Support Systems (COSSs) and (9) Artificial Intelligence; a new Approach. Most of the contributions are overhead figures from spoken lectures.

Plus c'est la meme chose: The future of nuclear weapons in Europe

International Nuclear Information System (INIS)

Maaranen, S.A.

1996-01-01

Since the end of the Cold War, the United States perhaps more than any other nuclear weapon state has deeply questioned the future role of nuclear weapons, both in a strategic sense and in Europe. It is probably the United States that has raised the most questions about the continuing need for and efficacy of nuclear weapons, and has expressed the greatest concerns about the negative consequences of continuing nuclear weapons deployment. In the US, this period of questioning has now come to a pause, if not a conclusion. In late 1994 the United States decided to continue to pursue reductions in numbers of nuclear weapons as well as other changes designed to reduce the dangers associated with the possession of nuclear weapons. But at the same time the US concluded that some number of nuclear forces would continue to be needed for national security for the foreseeable future. These necessary nuclear forces include a continuing but greatly reduced stockpile of nuclear bombs deployed in Europe under NATO's New Strategic Concept. If further changes to the US position on nuclear weapons in Europe are to occur, it is likely to be after many years, and only in the context of dramatic additional improvements in the political and geo-political climate in and around Europe. The future role of nuclear weapons in Europe, as discussed in this report, depends in part on past and future decisions by the United States. but it must also be noted that other states that deploy nuclear weapons in Europe--Britain, France, and Russia, as well as the NATO alliance--have shown little inclination to discontinue their deployment of such weapons, whatever the United States might choose to do in the future

Safeguards Automated Facility Evaluation (SAFE) methodology

International Nuclear Information System (INIS)

Chapman, L.D.; Grady, L.M.; Bennett, H.A.; Sasser, D.W.; Engi, D.

1978-01-01

The SAFE procedure is an efficient method of evaluating the physical protection system of a nuclear facility. Since the algorithms used in SAFE for path generation and evaluation are analytical, many paths can be evaluated with a modest investment in computer time. SAFE is easy to use because the information required is well-defined and the interactive nature of this procedure lends itself to straightforward operation. The modular approach that has been taken allows other functionally equivalent modules to be substituted as they become available. The SAFE procedure has broad applications in the nuclear facility safeguards field as well as in the security field in general. Any fixed facility containing valuable materials or components to be protected from theft or sabotage could be analyzed using this same automated evaluation technique

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.

The situation of chinese nuclear medicine technologists and strategy in future

International Nuclear Information System (INIS)

Zhang Yongxue

2001-01-01

Nuclear medicine technologists is an important part of nuclear medicine professionals, and play an important role in the progress of nuclear medicine. The professional quality of nuclear medicine technologists must adapt to the development of nuclear medicine. There is a relatively great gap between China mainland and developed countries in the field of nuclear medicine. In future, it is urgent to improve the professional quality and the educational level of nuclear medicine technologists

IAEA activities in nuclear safety: future perspectives. Spanish Nuclear Safety Council, Madrid, 28 May 1998

International Nuclear Information System (INIS)

ElBaradei, M.

1998-01-01

The document represents the conference given by the Director General of the IAEA at the Spanish Nuclear Safety Council in Madrid, on 28 May 1998, on Agency's activities in nuclear safety. The following aspects are emphasized: Agency's role in creating a legally binding nuclear safety regime, non-binding safety standards, services provided by the Agency to assist its Member States in the Application of safety standards, Agency's nuclear safety strategy, and future perspective concerning safety aspects related to radioactive wastes, residues of past nuclear activities, and security of radiological sources

Manpower development for safe operation of nuclear power plant. China. Simulator software development. UNDP-Activity: 2.1.8-IAEA-Task-01. Technical report

International Nuclear Information System (INIS)

Feng, C.P.

1994-01-01

In the frameworks of the project ''manpower development for safe operation of nuclear power plant'' the development of reactor simulator software is described. Qinshan nuclear power plant was chosen as a reference one

Present status and future outlook of nuclear power generation in Japan

International Nuclear Information System (INIS)

Kunikazu Aisaka

1987-01-01

The structure of energy consumption in Japan is heavily dependent on imported oil, therefore Japan has been making its greatest effort in developing nuclear power among other alternatives of oil. The capacity factor of the nuclear power plants in Japan marked 76% in FY 1986, exceeding 70% level for the past several years. The share of nuclear power is expected to increase steadily in the future. Future scale of the nuclear power generation is projected as 62,000 MW in year 2000 and as 137,000 MW in 2030. Nuclear power is expected to produce 58% of the nation's total power generation in 2030. Under the present circumstances, Janpan is executing a nuclear energy policy based on the following guidelines: 1. Promoting the safety advancement program; 2. Improving LWR technologies; 3. Program on use of plutonium in thermal reactors; 4. Advanced thermal reactors (ATRs); 5. Promotion of FBR development; 6. Nuclear fuel cycle. (Liu)

NATO's new strategic concept and the future of nuclear disarmament in Europe

International Nuclear Information System (INIS)

Dembinski, Matthias; Mueller, Harald

2010-01-01

The study on NATO's new strategic concept and the future of nuclear disarmament in Europe covers the following topics: From the Prague speech to the strategic concept - the significance and role of the substrategic nuclear weapons in Europe: the substrategic nuclear weapons (SSNW) in the USA: relict of the Cold war or clamps of the transatlantic security? The future of the SSNW from the Prague speech to the strategic concept. The positions of selected NATO members and Russia. Conclusions and recommendations: From the significance of the US nuclear weapons in Europe. Arms control policy options.

Is nuclear power safe enough

International Nuclear Information System (INIS)

Selberg, A.

1979-01-01

The vice-chairman of the Nuclear Power Safety Commission presents here the background for the Commission's work. He summarises informally the conclusions reached and quotes the minority dissensions. He also criticises many of the arguments made by anti-nuclear organisations. (JIW)

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.)

The non-peaceful uses of nuclear energy

International Nuclear Information System (INIS)

Rossnagel, A.

1987-01-01

The interest of the study is directed mainly to current and future motives and possibilities for the misuse of nuclear material. To obtain clues to risk development, 74 nuclear incidents were systematically compiled and evaluated. On the basis of this material and the American literature, possible future action forms and pertaining motives are discussed for their likelihood. The individual aspects of future hazards are described in detail for the situation of the Federal Republic of Germany in the year 2000. Finally, the nuclear safeguards system and its weak points are presented. The study warns against hoping to achieve adequate safety by a constant increase in safeguards: The plutonium cycle is not totally safe in all its stages, nor will it ever be. (HSCH) [de

Nuclear energy : Present situation and future prospects

International Nuclear Information System (INIS)

Gray, J.E.

1986-01-01

In 1953, President Eisenhower announced the U.S. ''Atoms for Peace'' program. After slightly more than 30 years, there are in operation, under construction or on order more than 400,000 MW of commercial nuclear power generation capacity located in 35 nations, representing a total investment around a trillion U.S. dollars. The situation is noteworthy in terms of the rate of technical development, deployment and transfer, the magnitude of the financial investment, economic benefits, the favorable impact on public health and safety, and the usual and positive character of cooperation among all concerned. The fundamentals of nuclear power generation with regard to economics, safety and environmental impact are likely to favor the increased use of nuclear power. The future prospect of the nuclear power in the U.S. also will be clarified positively. In many ways, U.S. commercial nuclear power continues to benefit from the Navy nuclear propulsion program. The prospect of supply demand situation in the conversion, enrichment and fabrication of uranium fuel is explained. The amount of spent fuel arising in OECD countries and their storage capability up to 2000 are shown, and the storage capability projected is well in excess. (Kako, I.)

There's no Nuclear Future without the Young

International Nuclear Information System (INIS)

Petrech, R.; Holy, R.

2002-01-01

Construction of Mochovce NPP started in 1981 - i.e. more than 20 years ago, however it was halted in early 90's after velvet Revolution in former Czechoslovakia. When the (I and C) system was decided in 1989 to be replaced with a state-of-the-art system of Siemens, and it was implemented in early 1990-1, the utility lacked money for further works and building works had to be halted. We were consequently thrown in difficult public and expert debates about the nuclear future: do we really need it? Nuclear is looking for new ways to persuade the public about the need to keep nuclear as a part of the world energy mix. For experts it is clear. It has already been indicated in the Green Book - a report about the future electricity demand coverage by diverse sources made out for the EC. The role of the young people is indispensable in this process. Information campaigns are focused mostly on youngsters from the very young age whose opinions are being formed. Only a long-lasting systematic work with the youth can bring better public opinion. About 95 % of Mochovce NPP visitors are students (mostly primary and secondary schools) - that is important.(author)

If nuclear energy is the answer, why doesn't everyone agree?

Science.gov (United States)

Roberts, J. W.

2018-03-01

Nuclear energy produces low carbon, safe and reliable electricity so is it now time for the UK to invest in this proven technology or are the misplaced perceptions regarding its safety, cost and the quantities of radioactive waste produced causing us to overlook nuclear as a major component of our electricity mix? This paper discusses these issues and whether the negative opinion of nuclear energy which could hold back it’s wider development in the UK, is justified in the 21st century. For the safe, secure and economic future of electricity can we afford to ignore the positive contributions nuclear energy can make any longer?

Accomplishments and future suggestions of 2012 seoul nuclear security summit

International Nuclear Information System (INIS)

Kim, Jae San

2012-01-01

The second Seoul Nuclear Security Summit was held in Seoul, March 26∼27, 2012. It was a very big political event for nuclear security. National and International organization leaders had a time to discuss in depth issues about nuclear security; nuclear terrorism, illicit trafficking of nuclear /radiological materials, sabotages for nuclear facilities, etc. Why did many national leaders still take part in the second nuclear security summit compared to Washington summit and what is the importance of nuclear security? This paper will be the answer from those questions and handle the background, outcomes and future tasks of nuclear security summit. And suggestions for the next summits were considered in the conclusion part

Accomplishments and future suggestions of 2012 seoul nuclear security summit

Energy Technology Data Exchange (ETDEWEB)

Kim, Jae San [Korea Institute of Nuclear Nonproliferation and Control, Daejeon (Korea, Republic of)

2012-10-15

The second Seoul Nuclear Security Summit was held in Seoul, March 26{approx}27, 2012. It was a very big political event for nuclear security. National and International organization leaders had a time to discuss in depth issues about nuclear security; nuclear terrorism, illicit trafficking of nuclear /radiological materials, sabotages for nuclear facilities, etc. Why did many national leaders still take part in the second nuclear security summit compared to Washington summit and what is the importance of nuclear security? This paper will be the answer from those questions and handle the background, outcomes and future tasks of nuclear security summit. And suggestions for the next summits were considered in the conclusion part.

The future of nuclear energy in Europe

International Nuclear Information System (INIS)

Schmidt-Kuester, W.J.

2000-01-01

Are concerns about global warming of the Earth's atmosphere going to rekindle interest in nuclear power and in building new nuclear power plants in Europe? As a consequence of the discussions about the climate, the use of nuclear power as an important energy source is currently being re-evaluated, finds Dr. Wolf-J. Schmidt-Kuester, Secretary General of FORATOM, the European Atomic Forum, headquartered in Brussels. In his article, he argues that a renaissance of nuclear power will be possible also in Europe once politics supports resuming an unbiased discussion of all topics associated with the energy problem. Europe must face two problems in the energy sector for which solutions must be found: the growing dependence on fossil energy resources, and the need to curb greenhouse gas emissions, especially those of carbon dioxide. Nuclear power is already making a sizable contribution towards the solution of these problems, but its future potential has hardly been tapped. Public acceptance of nuclear power shows that the intention to opt out of the peaceful uses of nuclear power is not based on an identical attitude of the public, but is motivated politically, finding only little public support, as in the cases of Sweden and Germany. (orig.) [de

Status and future plan of nuclear data activities in China

Energy Technology Data Exchange (ETDEWEB)

Zhuang Youxiang; Tang Hongqing [Academia Sinica, Beijing, BJ (China). Inst. of Atomic Energy

1997-03-01

The present status and future plan of nuclear data measurement and evaluation in China are presented, including the supplement, improvement on CENDL-2.1 and benchmark test of CENDL-2.1, the progress on nuclear data measurement and CENDL-3. (author)

Perspectives of development in the nuclear industry

International Nuclear Information System (INIS)

Barthelt, K.

1987-01-01

Modern economy cannot do without electricity, and safe and reliable electricity supply cannot do without nuclear power. This implies that the F.R.G. will continue to build nuclear power stations, and as the power stations of the future benefit from the experience gained with existing plant, there will be continuous improvement in terms of safety, pollution control, and economics. (orig.) [de

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)

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)

Authorization process in the sphere of nuclear fuel utilization according to the Bulgarian Act on the Safe Use of Nuclear Energy

International Nuclear Information System (INIS)

Stoyanova, P.; Vitkova, M.; Elenkov, D.; Vapirev, E.

2003-01-01

The new Bulgarian Act on the Safe Use of Nuclear Energy (ASUNE) was adopted in the year 2002. It replaced the former Act on the Use of Nuclear Energy for Peaceful Purposes, which was in force for about 17 years. The ASUNE covers the activities involving nuclear energy and sources of ionizing radiation mainly by establishing a consistent authorization regime. It is an up-to-date act, based on the IAEA requirements and standards, and yet fully in compliance with the Bulgarian legislative system. The newly adopted Act is based on the following main principles: Priority of safety over economic and other social needs; Occupational and public exposure to ionizing radiation to be kept as low as reasonably achievable (ALARA); Direct and personal liability of the licensee/permit holder; Independence of the regulatory body; Application of a less prescriptive approach; Issuing of authorizations under conditions of legal equality and transparency

Can active proton interrogation find shielded nuclear threats at human-safe radiation levels?

Energy Technology Data Exchange (ETDEWEB)

Liew, Seth Van, E-mail: vanliew@gmail.com

2017-05-21

A new method of low-dose proton radiography is presented. The system is composed of an 800 MeV proton source, bending magnets, and compact detectors, and is designed for drive-through cargo scanning. The system has been simulated using GEANT4. Material identification algorithms and pixel sorting methods are presented that allow the system to perform imaging at doses low enough to scan passenger vehicles and people. Results are presented on imaging efficacy of various materials and cluttered cargoes. The identification of shielded nuclear materials at human-safe doses has been demonstrated.

Software functions for safe operation - learning from Sizewell-B

International Nuclear Information System (INIS)

Welbourne, D.

1996-01-01

Future nuclear plants will use computer-based systems extensively. Regulatory acceptance must be planned and not underestimated. Commercial software packages will simplify it, but costly analysis and demonstration may be needed. Multiplexed control needs preparation of extensive configuration data and careful checking. On-screen soft control will need consideration of the integrity of the control path. Display design should follow human factors analysis of the operators' needs, and display layout needs great care for clarity. Computer-based system with planned quality will then bring great benefits in safe operation. (author) 1 fig., 3 refs

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.

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

Nuclear energy in Switzerland after Chernobyl - theses of SVA

International Nuclear Information System (INIS)

Anon.

1987-01-01

In its theses on nuclear energy after Chernobyl, the Swiss Association for Atomic Energy (SVA) - in which all Swiss organizations promoting the safe use of nuclear energy co-operate - has summarized the most important arguments for further peaceful uses of atomic energy. The SVA theses will contribute to an evaluation of riks associated with nuclear energy in the discusssions of future energy sources following Chernobyl

Nuclear energy today

International Nuclear Information System (INIS)

2003-01-01

Energy is the power of the world's economies, whose appetite for this commodity is increasing as the leading economies expand and developing economies grow. How to provide the energy demanded while protecting our environment and conserving natural resources is a vital question facing us today. Many parts of our society are debating how to power the future and whether nuclear energy should play a role. Nuclear energy is a complex technology with serious issues and a controversial past. Yet it also has the potential to provide considerable benefits. In pondering the future of this imposing technology, people want to know. - How safe is nuclear energy? - Is nuclear energy economically competitive? - What role can nuclear energy play in meeting greenhouse gas reduction targets? - What can be done with the radioactive waste it generates? - Does its use increase the risk of proliferation of nuclear weapons? - Are there sufficient and secure resources to permit its prolonged exploitation? - Can tomorrow's nuclear energy be better than today's? This publication provides authoritative and factual replies to these questions. Written primarily to inform policy makers, it will also serve interested members of the public, academics, journalists and industry leaders. (author)

(Nuclear) energy policy in future

International Nuclear Information System (INIS)

1982-01-01

With this report the German Federal Diet submits the final results of the opinion-forming and decision-making process concerning the recommendations made by the investigation committee 'Future Nuclear Energy Policy' in June 1980. By means of this report it is intended to point out to an interested public the difficult and time-consuming process of parliamentary decision-making. This report is also to be seen as the final opinion delivered on the recommendations made by the investigation committee. The recommendations were to continue to pursue the peaceful use of nuclear energy, the necessity and technical justifiability of which had basically been approved by all parliamentary groups. In view of the import of the subject and in recognition of the work done by the investigation committee, the German Parliament has thoroughly discussed the report and has reviewed the analyses and recommendations in conjunction with other political fields to be considered. One part of the recommendations was taken up almost unanimously. As far as the safety of nuclear installations is concerned, the investigation committee could not submit any new findings which would give reasons for modifying the hitherto positive assessment of the safety of nuclear installations. The recommendations of the investigation committee mainly referred to the decision-making process in the field of energy policy which will effect the next decade. What fundamental decisions are to be made until when was pointed out as well as the findings and experience to be made until then. (orig./HP) [de

Search of an optimal and safe trends for nuclear power engineering development

International Nuclear Information System (INIS)

Takibaev, Zh.S.

2001-01-01

The project of constructing of underground nuclear power plant (NPP) in Kazakhstan is suggested. By the author opinion, the underground NPP construction have the following advantages, (1) decrease the NPP cost because of absence of efforts and expenses for NPP decommissioning; (2) the problem of nuclear waste disposal is solving per se so nuclear wastes are under ground; (3) the environment exposure from radiation risk is appreciably less than from surface NPP; (4) remained underground uranium fission and over-uranium elements products are valuable raw which will be claimed in the future. It is noted, that a many variants for selection of underground NPP site in Kazakhstan are considered. It was proposed the site adjoining to the Chu railway terminal for underground NPP construction

Beyond integrated safeguards: Performance-based assessments for future nuclear controls

International Nuclear Information System (INIS)

Pilat, Joseph F.; Budlong Sylvester, Kory W.

2001-01-01

Full text: In the future, if the nuclear nonproliferation and arms control agendas are to advance, they will likely become increasingly seen as parallel undertakings with the objective of comprehensive cradle-to-grave controls over nuclear materials and possibly even warheads removed from defense programs along with materials in civilian use. This 'back to the future' prospect was envisioned in the Acheson-Lillienthal Report and the Baruch Plan, and more modestly in the Atoms-for-Peace Proposal. Unlike the grand plans of the early nuclear years, today's and tomorrow's undertakings will more likely consist of a series of incremental steps with the goal of expanding nuclear controls. These steps will be undertaken at a time of fundamental change in the IAEA safeguards system, and they will be influenced by those changes in profound ways. This prospective influence needs to be taken into account as the IAEA develops and implements integrated safeguards, including its efforts to establish new safeguards criteria, undertake technological and administrative improvements in safeguards, implement credible capabilities for the detection of undeclared nuclear facilities and activities and, perhaps, provide for a more intensive involvement in applying safeguards in new roles such as the verification of a Fissile Material Cutoff Treaty. Performance-based criteria offer one promising way to address the effectiveness of integrated safeguards and to provide a common means of assessing the other key areas of a comprehensive approach to nuclear controls as these develop independently and to the extent that they are coordinated in the future. (author)

Global economics/energy/environmental (E3) modeling of long-term nuclear energy futures

International Nuclear Information System (INIS)

Krakowski, R.A.; Davidson, J.W.; Bathke, C.G.; Arthur, E.D.; Wagner, R.L. Jr.

1997-01-01

A global energy, economics, environment (E 3 ) model has been adopted and modified with a simplified, but comprehensive and multi-regional, nuclear energy module. Using this model, consistent nuclear energy scenarios are constructed. A spectrum of future is examined at two levels in a hierarchy of scenario attributes in which drivers are either external or internal to nuclear energy. Impacts of a range of nuclear fuel-cycle scenarios are reflected back to the higher-level scenario attributes. An emphasis is placed on nuclear materials inventories (in magnitude, location, and form) and their contribution to the long-term sustainability of nuclear energy and the future competitiveness of both conventional and advanced nuclear reactors

The future of nuclear power in Germany

International Nuclear Information System (INIS)

Holzer, J.

1993-01-01

The future of nuclear power in Germany is not only a matter of technology, economy and ecology but, above all, a matter of political leadership, the quality of interaction of all groups of society, the need to take ideology out of politico-economico-technical matters, and of firmly standing up for a style of democracy in which majorities, not minorities, decide. The power economy is agreed that nuclear power is indispensable in a powerful electricity supply scheme. These should be the criteria to be met by an energy consensus: No nuclear plants should be sacrificed by being shut down before the end of their technical and economic service life; spent fuel and waste management in Germany should be secured with sufficient interim storage and repository storage capacities. (orig.) [de

The evolution of the role of the Philippine Nuclear Research Institute in the national nuclear and radiation safety regime

International Nuclear Information System (INIS)

Dela Rosa, A.M.

2007-01-01

The Philippine Nuclear Research Institute (PNRI), formerly the Philippine Atomic Energy Commission (PAEC) was created by law in 1958 with a dual mandate namely, to promote the peaceful applications of nuclear energy, and to regulate the safe utilization of nuclear energy. Through its almost 50 years of existence, the PNRI has assumed different roles and functions. As the premier national nuclear research institution the PNRI initiates R and D work in various applications, establishes nuclear and radiation facilities, and undertakes human resource development not only for its staff but also for the prospective users of nuclear energy. At the same time, the PNRI exercises regulatory control over radioactive materials in the country including the regulatory control over the construction of the first Philippine nuclear power plant in the late 1970's and early 1980's. Presently, the PNRI still exercises the dual mandate of promoting and regulating the peaceful and safe use of radioactive materials. In these evolving roles of the Institute, both management and the staff are committed to excellence in nuclear science and to nuclear safety. Initiatives are underway to create a separate nuclear regulatory body from the developmental agency to enable the country to conform with international safety standards and to prepare for the future re-introduction of nuclear power in the Philippine energy mix. A strong regulatory agency and an equally strong technical and scientific support organization are necessary for a successful and safe nuclear energy program. (author)

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

Safe management of the operating lifetimes of nuclear power plants. INSAG-14. A report by the International Nuclear Safety Advisory Group

International Nuclear Information System (INIS)

2014-01-01

The International Atomic Energy Agency's activities relating to nuclear safety are based upon a number of premises. First and foremost, each Member State bears full responsibility for the safety of its nuclear facilities. States can be advised, but they cannot be relieved of this responsibility. Secondly, much can be gained by exchanging experience; lessons learned can prevent accidents. Finally, the image of nuclear safety is international; a serious accident anywhere affects the public's view of nuclear power everywhere. With the intention of strengthening its contribution to ensuring the safety of nuclear power plants, the IAEA established the International Nuclear Safety Advisory Group (INSAG), whose duties include serving as a forum for the exchange of information on nuclear safety issues of international significance and formulating, where possible, commonly shared safety principles. The present report by INSAG deals with a general approach to the safe management of the operating lifetimes of nuclear power plants. It responds to the concerns about maintaining adequate safety levels at ageing plants, even beyond their design lifetimes. Maintaining adequate safety levels implies first and foremost stringent control of equipment ageing, consistent with the design safety bases of the plants. However, as stated in the 75-INSAG-3 report, 'Basic Safety Principles for Nuclear Power Plants', nuclear safety requires a continuing quest for excellence; this implies enhancinuest for excellence; this implies enhancing the safety levels of operating nuclear power plants as far as reasonably practicable, with due account taken of experience and advancement in knowledge. Moreover, in view of the present situation of the nuclear industry, it may become difficult to maintain adequate competences in many countries with nuclear power programmes. These topics are considered in this latest INSAG report and released to a wider audience

Safe management of the operating lifetimes of nuclear power plants. INSAG-14. A report by the International Nuclear Safety Advisory Group

International Nuclear Information System (INIS)

1999-01-01

The International Atomic Energy Agency's activities relating to nuclear safety are based upon a number of premises. First and foremost, each Member State bears full responsibility for the safety of its nuclear facilities. States can be advised, but they cannot be relieved of this responsibility. Secondly, much can be gained by exchanging experience; lessons learned can prevent accidents. Finally, the image of nuclear safety is international; a serious accident anywhere affects the public's view of nuclear power everywhere. With the intention of strengthening its contribution to ensuring the safety of nuclear power plants, the IAEA established the International Nuclear Safety Advisory Group (INSAG), whose duties include serving as a forum for the exchange of information on nuclear safety issues of international significance and formulating, where possible, commonly shared safety principles. The present report by INSAG deals with a general approach to the safe management of the operating lifetimes of nuclear power plants. It responds to the concerns about maintaining adequate safety levels at ageing plants, even beyond their design lifetimes. Maintaining adequate safety levels implies first and foremost stringent control of equipment ageing, consistent with the design safety bases of the plants. However, as stated in the 75-INSAG-3 report, 'Basic Safety Principles for Nuclear Power Plants', nuclear safety requires a continuing quest for excellence; this implies enhancing the safety levels of operating nuclear power plants as far as reasonably practicable, with due account taken of experience and advancement in knowledge. Moreover, in view of the present situation of the nuclear industry, it may become difficult to maintain adequate competences in many countries with nuclear power programmes. These topics are considered in this latest INSAG report and released to a wider audience

The safe production of hydrogen by nuclear power

International Nuclear Information System (INIS)

Verfondern, Karl

2009-01-01

One of the most promising 'GEN-IV' nuclear reactor concepts is the Very High Temperature Reactor (VHTR). It is characterized by a helium-cooled, graphite moderated, thermal neutron spectrum reactor core of 400-600 MW(th). Coolant outlet temperatures of 900-1000 .deg. C ideally suited for a wide spectrum of high temperature process heat or process steam applications, which allow to deliver, besides the classical electricity, also non-electrical products such as hydrogen or other fuels. In a future energy economy, hydrogen as a storable medium could adjust a variable demand for electricity by means of fuel cell power plants providing much more flexibility in optimized energy structures. The mass production of hydrogen is a major goal for Gen-IV systems. In a nuclear hydrogen production facility, the coupling between the nuclear plant and the process heat/steam application side is given by an intermediate heat exchanger (IHX), a component which provides a clear separation preventing the primary coolant from accessing the heat application plant and, vice versa, any process gases from being routed through the reactor containment. The physical separation has the advantage that the heat application facility can be conventionally designed, and repair works can be conducted under non-nuclear conditions. With regard to the safety of combined nuclear and chemical facilities, apart from their own specific categories of hazards, a qualitatively new class of events will have to be taken into account characterized by interacting influences. Arising problems to be covered by a decent overall safety concept are the questions of safety of the nuclear plant in case of fire and explosion hazards resulting from the leakage of flammable substances, the tolerable tritium contamination of the product hydrogen, or the situations of thermo-dynamic feedback in case of a loss of heat source (nuclear) or heat sink (chemical) resulting in thermal turbulences. A safety-related issue is the

Can the future, world-wide energy supply be achieved without nuclear energy?

International Nuclear Information System (INIS)

Kugeler, K.

1995-01-01

In the future the world-wide energy demand is going to increase considerably. The use of nuclear energy will continuously grow if the demand of climate researchers for a reduction of the world-wide CO 2 emission is fulfilled and if the possible contribution of regenerative energy sources is assessed realistically. In the future a world-wide use of nuclear energy will be realised according to even higher safety standards. The modification of the German Atom Law, which determines the limitation of damage caused to the reactor plant for future reactors fulfils this demand. The efforts in the field of nuclear technical development will concentrate on the proof of the required safety properties. (orig.) [de

The role of nuclear technology beyond power generation deserves wider recognition

International Nuclear Information System (INIS)

Shepherd, John

2016-01-01

Building new nuclear power plants, extending the lifetimes of existing reactors or decommissioning plants are regular topics of debate surrounding the civil nuclear industry. Then there are the challenges faced in many countries that still await political leadership on solutions for the future safe long-term management of waste for the future. However, one aspect of the industry that impacts the everyday lives of the general public is often overlooked - and that is nuclear's role in protecting the global environment and public health.

The role of nuclear technology beyond power generation deserves wider recognition

Energy Technology Data Exchange (ETDEWEB)

Shepherd, John [nuclear 24, Redditch (United Kingdom)

2016-07-15

Building new nuclear power plants, extending the lifetimes of existing reactors or decommissioning plants are regular topics of debate surrounding the civil nuclear industry. Then there are the challenges faced in many countries that still await political leadership on solutions for the future safe long-term management of waste for the future. However, one aspect of the industry that impacts the everyday lives of the general public is often overlooked - and that is nuclear's role in protecting the global environment and public health.

Safe management of discussed sealed sources in Peru

International Nuclear Information System (INIS)

Mallaupoma, M.

2000-01-01

The future safe development of nuclear energy and progressive increasing use of sealed sources in medicine, research, industry and other fields in Peru, in the past years have determined the necessity to formulate and apply an Institutional policy to assure harmless and ecologically rational management of disused sealed sources in Peru. Some results of the studies, which served as a basis for design and construction of a facility for treatment, conditioning and storage of conditioned sealed sources are presented in this paper. The waste management system in Peru comprises operational and regulatory capabilities. Both of these activities are performed under a legislation. The Nuclear Research Center RACSO has a radioactive waste management department which is in charge of the management of disused sealed sources produced in the country. It is considered as a centralized waste processing and storage facility (WPSF). (author)

The nuclear energy of the future: the researches and the objectives

International Nuclear Information System (INIS)

2005-01-01

Today energy problems are global problems. That is why the new generation of energy production by nuclear power must be realized basely on serious forecasts at a world scale. The nuclear energy presents many trumps for an energetic answer, at long-dated, concerning the environment and the resources. This will be for two main conditions: the ability to answer the public opinion anxiety and the development of new systems more high- performance in terms of safety and economy in the framework of the sustainable development and the non proliferation policy. These subjects are at the earth of the CEA missions. This document proposes a detailed presentation of the nuclear origins, the fuel and its cycle, the radioactive wastes and their management,the dismantling and the decommissioning of the nuclear installations, the challenges of the nuclear safety, the energy in the world, the nuclear economy, the nuclear in the world, the researches of the future, the third generation reactors, the research on radioactive wastes, the fuel cycle of the nuclear systems of the future, the uranium resources, the generation four forum, the gas coolant reactors, the thorium, hybrid systems and the thermonuclear fusion. (A.L.B.)

Safe operating envelope

Energy Technology Data Exchange (ETDEWEB)

Oliva, N [Ontario Hydro, Toronto, ON (Canada)

1997-12-01

Safe Operating Envelope is described representing: The outer bound of plant conditions within which day-to-day plant operation must be maintained in order to comply with regulatory requirements, associated safety design criteria and corporate nuclear safety goals. Figs.

Safe operating envelope

International Nuclear Information System (INIS)

Oliva, N.

1997-01-01

Safe Operating Envelope is described representing: The outer bound of plant conditions within which day-to-day plant operation must be maintained in order to comply with regulatory requirements, associated safety design criteria and corporate nuclear safety goals. Figs

Physics for future Presidents - nuclear power, terrorism, global warming; La physique expliquee a notre futur president - Nucleaire, terrorisme, rechauffement climatique

Energy Technology Data Exchange (ETDEWEB)

Muller, Richard A.

2011-04-26

This book explains the science behind the concerns that our nation faces in the immediate future. It outlines the tools of terrorists, the dangers of nuclear power, and the reality of global warming. As citizens who will elect future presidents of the most powerful and influential countries in the world, we need to know-truly understand if Iran's nascent nuclear capability is a genuine threat to the West, if biochemical weapons are likely to be developed by terrorists, if there are viable alternatives to fossil fuels that should be nurtured and supported by the government, if nuclear power should be encouraged, and if global warming is actually happening. This book is written in everyday, nontechnical language on the science behind the concerns that our nations faces in the immediate future. This book is translated from 'Physics for Future Presidents: The Science Behind the Headlines', published by W. W. Norton and Company in August 2008. Contents: 1 - Terrorism: Nine-eleven, Terrorist nukes, The next terrorist attack, Biological terrorism; 2 - Energy: Key energy surprises, Solar Power, The end of oil; 3 - Nukes: Radioactivity and death, Radioactive decay, Nuclear weapons, Nuclear madness, Nuclear power, Nuclear waste, Controlled fusion; 4 - Space: Space and satellites, Gravity applications, Humans in space, Spying with invisible light; 5 - Global Warming: A brief history of climate, The greenhouse effect, A very likely cause, Evidence, Non-solutions, The fruit on the ground, New technologies

Finding synergy between local competitiveness and global sustainability to provide a future to nuclear energy

International Nuclear Information System (INIS)

Van Den Durpel, Luc; Yacout, Abdellatif; Wade, Dave

2008-01-01

The world's future energy needs will require a mix of energy conversion technologies matched to the local energy market needs while also responding to both local and global socio-political concerns, e.g. energy security, environmental impact, safety and non-proliferation. There is growing recognition worldwide that nuclear energy should not only be part of the solution but maybe as well play a larger share in future's energy supply. The sustainability of future nuclear energy systems is hereby important and a variety of studies have already shown that sustainability of nuclear energy from a resource perspective is achievable via the nuclear fuel cycle though where economic sustainability is essentially defined by the nuclear power plants. The main challenge in deploying sustainable nuclear energy systems will be to find synergies between this local competitiveness of nuclear power plants and the global resource sustainability defined via the nuclear fuel cycle. Both may go hand-in-hand in the long-term but may need government guidance in starting the transition towards such future sustainable nuclear energy systems. (authors)

Recent irradiation tests for future nuclear system at HANARO

Energy Technology Data Exchange (ETDEWEB)

Cho, Man Soon; Choo, Kee Nam; Yang, Seong Woo; Park, Sang Jun [Korea Atomic Energy Research Institute, Daejeon (Korea, Republic of)

2016-05-15

The capsule at HANARO is a device that evaluates the irradiation effects of nuclear materials and fuels, which can reproduce the environment of nuclear power plants and accelerate to reach to the end of life condition. As the integrity assessment and the extension of lifetime of nuclear power plants are recently considered as important issues in Korea, the requirements for irradiation test are gradually being increased. The capacity and capability irradiation tests at HANARO are becoming important because Korea strives to develop SFR (Sodium-cooled Fast Reactor) and VHTR (Very High Temperature Reactor) among the future nuclear system and to export the research reactors and to develop the fusion reactor technology.

Prospective thorium fuels for future nuclear energy generation

International Nuclear Information System (INIS)

Lainetti, Paulo E.O.

2017-01-01

In the beginning of the Nuclear Era, many countries were interested on thorium, particularly during the 1950 1970 periods. Nevertheless, since its discovery almost two centuries ago, the use of thorium has been restricted to gas mantles employed in gas lighting. The future world energy needs will increase and, even if we assumed a conservative contribution of nuclear generation, it will be occur a significant increasing in the uranium prices, taking into account that uranium, as used in the present thermal reactors, is a finite resource. Nowadays approximately the worldwide yearly requirement of uranium for about 435 nuclear reactors in operation is 65,000 metric t. Therefore, alternative solutions for future must be developed. Thorium is nearly three times more abundant than uranium in The Earth's crust. Despite thorium is not a fissile material, 232 Th can be converted to 233 U (fissile) more efficiently than 238 U to 239 Pu. Besides this, thorium is an environment alternative energy source and also inherently resistant to proliferation.. Many countries had initiated research on thorium in the past, Nevertheless, the interest evanesced due new uranium resources discoveries and availability of enriched uranium at low prices from obsolete weapons. Some papers evaluate the thorium resources in Brazil over 1.200.000 metric t. Then, the thorium alternative must be seriously considered in Brazil for strategic reasons. A brief history of thorium and its utilization are presented, besides a very short discussion about prospective thorium nuclear fuels for the next generation of nuclear reactors. (author)

Prospective thorium fuels for future nuclear energy generation

Energy Technology Data Exchange (ETDEWEB)

Lainetti, Paulo E.O., E-mail: lainetti@ipen.br [Instituto de Pesquisas Energeticas e Nucleares (IPEN/CNEN-SP), Sao Paulo, SP (Brazil)

2017-07-01

In the beginning of the Nuclear Era, many countries were interested on thorium, particularly during the 1950 1970 periods. Nevertheless, since its discovery almost two centuries ago, the use of thorium has been restricted to gas mantles employed in gas lighting. The future world energy needs will increase and, even if we assumed a conservative contribution of nuclear generation, it will be occur a significant increasing in the uranium prices, taking into account that uranium, as used in the present thermal reactors, is a finite resource. Nowadays approximately the worldwide yearly requirement of uranium for about 435 nuclear reactors in operation is 65,000 metric t. Therefore, alternative solutions for future must be developed. Thorium is nearly three times more abundant than uranium in The Earth's crust. Despite thorium is not a fissile material, {sup 232}Th can be converted to {sup 233}U (fissile) more efficiently than {sup 238}U to {sup 239}Pu. Besides this, thorium is an environment alternative energy source and also inherently resistant to proliferation.. Many countries had initiated research on thorium in the past, Nevertheless, the interest evanesced due new uranium resources discoveries and availability of enriched uranium at low prices from obsolete weapons. Some papers evaluate the thorium resources in Brazil over 1.200.000 metric t. Then, the thorium alternative must be seriously considered in Brazil for strategic reasons. A brief history of thorium and its utilization are presented, besides a very short discussion about prospective thorium nuclear fuels for the next generation of nuclear reactors. (author)

The future of nuclear non-proliferation in South Asia

International Nuclear Information System (INIS)

Siddiqa, A.

1997-01-01

Nuclear proliferation in South Asia is currently one of the hot topics in world politics. The concern of the international community, and especially the USA, over this issue is coupled with the fear of nuclear conflict between India and Pakistan. As a result, Washington has been using its 'stick and carrot' policy to persuade the two countries involved not to develop their nuclear programs for military purposes. However both countries have not only continued to develop their nuclear ambitions, but seem to have achieved vertical nuclear proliferation. This paper examines the future non-proliferation in the South Asian region in the 1990s. This will be achieved by looking at the following: the development of the nuclear capabilities of both India and Pakistan; how these programs have been developed; the reasons for acquiring the capability for non-conventional defence; the real fear in terms of nuclear proliferation in the region; the possible options for dealing with nuclear proliferation in South Asia

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)

The role of nuclear power in meeting future energy demands

International Nuclear Information System (INIS)

Fuchs, K.

1977-01-01

Future energy demands and possibilities of meeting them are outlined. The current status and future developments of nuclear energetics all over the world and in the CMEA member states are discussed considering reactor safety, fission product releases, and thermal pollution of the environment

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)

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)

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.)

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

Charting a nuclear future for the Czech Republic

Energy Technology Data Exchange (ETDEWEB)

Mitev, Lubomir [NucNet, Brussels (Belgium)

2015-08-15

After the tender process for new reactors at Temelin was cancelled last year, Czech utility and nuclear operator CEZ is starting ''a broad discussion'' with the government on when and where to build new units. NucNet interviewed Petr Zavodsky, director of nuclear power plant construction at CEZ. He joined CEZ in 1994 as an independent verification and validation specialist for safety systems software at the Temelin nuclear power station. In June 2015, the Czech Cabinet approved a national action plan for the long-term future of nuclear energy, including plans to build new nuclear units at the existing Temelin and Dukovany sites. The plan is for at least one new reactor at Dukovany and Temelin, with a probable total of four new reactors in the long term at the two locations. Priority for construction of the first reactor will be given to the Dukovany site, where the first of four reactors currently operating will probably be shut down in 2035.

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

A future vision of nuclear material information systems

International Nuclear Information System (INIS)

Suski, N.; Wimple, C.

1999-01-01

To address the current and future needs for nuclear materials management and safeguards information, Lawrence Livermore National Laboratory envisions an integrated nuclear information system that will support several functions. The vision is to link distributed information systems via a common communications infrastructure designed to address the information interdependencies between two major elements: Domestic, with information about specific nuclear materials and their properties, and International, with information pertaining to foreign nuclear materials, facility design and operations. The communication infrastructure will enable data consistency, validation and reconciliation, as well as provide a common access point and user interface for a broad range of nuclear materials information. Information may be transmitted to, from, and within the system by a variety of linkage mechanisms, including the Internet. Strict access control will be employed as well as data encryption and user authentication to provide the necessary information assurance. The system can provide a mechanism not only for data storage and retrieval, but will eventually provide the analytical tools necessary to support the U.S. government's nuclear materials management needs and non-proliferation policy goals

The GT-MHR - clear, economic, and safe power for the Pacific Rim

International Nuclear Information System (INIS)

Blue, L.S.; Etzel, K.T.; Simon, W.A.; Wistrom, J.D.

1994-01-01

In recent decades the nations of the Pacific Rim have outpaced the rest of the world in economic growth. Beyond an abundant labor market and the region's natural resources, energy has played a pivotal role in fuelling this boom. The diverse sources of this energy largely reflect the naturally occurring fuel assets in the Rim countries. Only in the countries where these resources are less plentiful has nuclear energy become a significant sources of electric power generation. Persuasive as the argument for non-polluting power may be by itself it does not sell the nuclear energy option. In addition to being clean it must also be economically competitive and very safe. The authors claim that the Gas-Turbine Modular Helium Reactor (GT-MHR) is an advances nuclear power system that addresses the issues, and should be viewed as an attractive candidate to meet future energy needs. The GT-MHR derives from the coupling of a small, passively safe, modular reactor directly with a compact power conversion module. It uses the Brayton cycle to produce electricity directly with the primary helium coolant driving the turbine-generator. Thus, it shows promise for a quantum reduction in power generation costs by increasing plant efficiency to a remarkable 48% This paper highlights the advantages of the fact that the design is based on proven technology, and offers a clean, economic and safe energy for electricity and high temperature process heat. 2 refs., 4 figs

Impact of Three Mile Island on the nuclear community and the future of nuclear power

International Nuclear Information System (INIS)

Baron, S.

1980-01-01

The Three Mile Island incident has already impacted on the future of nuclear power specifically and on the energy crisis generally. The resultant NRC's de facto moratorium on the licensing of commercial nuclear power plants will increase the use of oil, raise the cost of electric power, and may create power shortages. On the positive side, TMI may have been beneficial in that it has precipitated a searching reassessment and improvement of nuclear power safety and practices-TMI not withstanding, the rate of nuclear power expansion must increase; otherwise the energy crisis will deepen in the years to come

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

Artificial intelligence in nuclear engineering: developments, lesson learned and future directions

Energy Technology Data Exchange (ETDEWEB)

Ruan, Da [The Belgian Nuclear Research Centre (SCK.CEN), Mol (Belgium)]. E-mail: druan@sckcen.be

2005-07-01

Full text of publication follows: In this lecture, an overview on artificial intelligence (AI) from control to decision making in nuclear engineering will be given mainly based on the 10 years progress of the FLINS forum (Fuzzy Logic and Intelligent Technology in Nuclear Science). Some FLINS concrete examples on nuclear reactor operation, nuclear safeguards information management, and cost estimation under uncertainty for a large nuclear project will be illustrated for the potential use of AI in nuclear engineering. Recommendations and future research directions on AI in nuclear engineering will be suggested from a practical point of view. (author)

Artificial intelligence in nuclear engineering: developments, lesson learned and future directions

International Nuclear Information System (INIS)

Ruan, Da

2005-01-01

Full text of publication follows: In this lecture, an overview on artificial intelligence (AI) from control to decision making in nuclear engineering will be given mainly based on the 10 years progress of the FLINS forum (Fuzzy Logic and Intelligent Technology in Nuclear Science). Some FLINS concrete examples on nuclear reactor operation, nuclear safeguards information management, and cost estimation under uncertainty for a large nuclear project will be illustrated for the potential use of AI in nuclear engineering. Recommendations and future research directions on AI in nuclear engineering will be suggested from a practical point of view. (author)

Development and future perspective of nuclear power plants. Current status and future prospect of world nuclear power plants

International Nuclear Information System (INIS)

Kobayashi, Masaharu

2013-01-01

Fukushima Daiichi NPS accidents occurred on 11 March 2011 brought about great effects on nuclear development not only in Japan but also in the world. In Japan restart of operation of periodically inspected nuclear power plants (NPPs) could not be allowed except Oi NPPs two units and most parties except Liberal Democratic Party (LDP) pledged to possibly phasing out nuclear power at House of Councillors election in July and public opinion was mostly against nuclear power after the accident. LDP clearly stated that, with the inauguration of new government last December, Japan would not pursuing the policy of the prior government of possibly phasing out nuclear power by the 2030s, but would instead make a 'zero-base' review of energy policy. Germany decided to close eight reactors immediately and remaining nine by the end of 2022. For many countries, nuclear power would play an important role in achieving energy security and sustainable development goals. In 2011 NPPs 6 units started operation with 2 units under construction, and in 2012 NPPs 3 units started operation with 7 units under construction. At present there are now over 400 NPPs operating in 31 countries and world trend seemed nuclear development was continued and number of countries newly deploying NPPs was increasing as much as eighteen. This article presented current status and future prospect of world NPPs in details. Japan would like to share its experiences and information obtained from the accident with the world and also promote NPPs overseas to meet the world's expectations. (T. Tanaka)

Safe management of radioactive waste in Ghana

International Nuclear Information System (INIS)

Glover, E.T.; Fletcher, J.J.

2000-01-01

The Ghana Atomic Energy Commission was established in 1963 by an Act of Parliament, Act 204 for the Promotion, Development and Peaceful Application of Nuclear Techniques for the Benefit of Ghana. As in many developing countries the use of nuclear application is growing considerably in importance within the national economy. The Radiation Protection Board was established as the national regulatory authority and empowered by the Radiation Protection Instrument LI 1559 (1993). The above regulations, Act 204 and LI 1559 provided a minimum legal basis for regulatory control of radioactive waste management as it deals with waste management issues in a very general way and is of limited practical use to the waste producer. Hence the National Radioactive Waste Management Centre was established in July 1995 to carry out waste safety operations in Ghana. This paper highlights steps that have been taken to develop a systemic approach for the safe management of radioactive waste in the future and those already in existence. (author)

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.)

Nuclear power: Status report and future prospects

International Nuclear Information System (INIS)

Budnitz, Robert J.

2016-01-01

This article reviews the current status and future prospects of commercial nuclear electric power, with emphasis on issues of safety, physical security, proliferation, and economics. Discussions of these issues are presented separately for the current operating fleet, for new reactor designs similar in size to the current fleet, and for prospective new reactors of substantially smaller size. This article also discusses the issue of expansion of commercial nuclear power into new countries. The article concludes with recommendations, related both to technical issues and policy considerations. The major implications for policy are that although the level of safety and security achieved in today's operating reactor fleet worldwide is considered broadly acceptable, some advanced designs now under development potentially offer demonstrably safer performance, and may offer improved financial performance also. Management and safety culture are vital attributes for achieving adequate safety and security, as are a strong political culture that includes an absence of corruption, an independent regulatory authority, and a separation of nuclear operation from day-to-day politics. In some countries that are now considering a nuclear-power program for the first time, careful attention to these attributes will be essential for success. - Highlights: •Current status of nuclear reactor safety and security is judged to be adequate. •Strong management and safety culture are vital to achieve adequate nuclear safety. •Advanced reactor designs offer important safety advantages. •Maintaining and strengthening international nuclear institutions is important. •Achieving nuclear safety in “newcomer” countries requires a strong political culture.

Ensuring safe water in post-chemical, biological, radiological and nuclear emergencies

Science.gov (United States)

Amar, Praveen Kumar

2010-01-01

Disaster scenarios are dismal and often result in mass displacement and migration of people. In eventuality of emergency situations, people need to be rehabilitated and provided with an adequate supply of drinking water, the most essential natural resource needed for survival, which is often not easily available even during non-disaster periods. In the aftermath of a natural or human-made disaster affecting mankind and livestock, the prime aim is to ensure supply of safe water to reduce the occurrence and spread of water borne disease due to interrupted, poor and polluted water supply. Chemical, biological, radiological and nuclear (CBRN) emergencies augment the dilemma as an additional risk of “contamination” is added. The associated risks posed to health and life should be reduced to as low as reasonably achievable. Maintaining a high level of preparedness is the crux of quick relief and efficient response to ensure continuous supply of safe water, enabling survival and sustenance. The underlying objective would be to educate and train the persons concerned to lay down the procedures for the detection, cleaning, and treatment, purification including desalination, disinfection, and decontamination of water. The basic information to influence the organization of preparedness and execution of relief measures at all levels while maintaining minimum standards in water management at the place of disaster, are discussed in this article. PMID:21829321

Ensuring safe water in post-chemical, biological, radiological and nuclear emergencies

Directory of Open Access Journals (Sweden)

Praveen Kumar Amar

2010-01-01

Full Text Available Disaster scenarios are dismal and often result in mass displacement and migration of people. In eventuality of emergency situations, people need to be rehabilitated and provided with an adequate supply of drinking water, the most essential natural resource needed for survival, which is often not easily available even during non-disaster periods. In the aftermath of a natural or human-made disaster affecting mankind and livestock, the prime aim is to ensure supply of safe water to reduce the occurrence and spread of water borne disease due to interrupted, poor and polluted water supply. Chemical, biological, radiological and nuclear (CBRN emergencies augment the dilemma as an additional risk of "contamination" is added. The associated risks posed to health and life should be reduced to as low as reasonably achievable. Maintaining a high level of preparedness is the crux of quick relief and efficient response to ensure continuous supply of safe water, enabling survival and sustenance. The underlying objective would be to educate and train the persons concerned to lay down the procedures for the detection, cleaning, and treatment, purification including desalination, disinfection, and decontamination of water. The basic information to influence the organization of preparedness and execution of relief measures at all levels while maintaining minimum standards in water management at the place of disaster, are discussed in this article.

Nuclear power - international and national dimensions

International Nuclear Information System (INIS)

Yanev, Ya.

1994-01-01

A strong internationalization of nuclear problems is observed recently. International links have acted as a powerful force for improvement of safety standards and plant performance. The prospects for nuclear industry, its safety and excellent operation, its acceptance and tolerance from society in general will strongly influence the future of nuclear power generation in Bulgaria. The most important problems of Bulgarian nuclear energy are: implementation of safety upgrading program; building and operating new nuclear units; developing infrastructure which will permit safe and reliable operation of the existing units and solve the fuel cycle problems in a reliable and acceptable by the society manner. (I.P.)

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.)

Computers in nuclear medicine - current trends and future directions

International Nuclear Information System (INIS)

Anon.

1994-01-01

Previously, a decision to purchase computing equipment for nuclear medicine usually required evaluation of the 'local' needs. With the advent of Pacs and state of the art computer techniques for image acquisition and manipulation, purchase and subsequent application is to become much more complex. Some of the current trends and future possibilities which may influence the choice and operation of computers within and outside the nuclear medicine environment is discussed. (author)

The future of nuclear energy

International Nuclear Information System (INIS)

Cockcroft, J.; Bhabha, H.J.; Goldschmidt, B.

1959-01-01

A public discussion on the future of nuclear energy was organized by the Director General of the International Atomic Energy Agency in Vienna on 22 September 1959 in conjunction with the third regular session of the Agency's General Conference. The three eminent scientists who participated in the discussion - Dr. Homi J. Bhabha of India, Sir John Cockcroft of the United Kingdom and Dr. Bertrand Goldschmidt of France - are members of the Agency's Scientific Advisory Committee. The Secretary of the Committee, Dr. Henry Seligman, Deputy Director General of IAEA, acted as moderator. The meeting was presided over by the Director General, Mr. Sterling Cole. The discussion began with opening statements by the three scientists surveying recent developments, current trends and future possibilities. After these general statements, they answered a number of questions from the audience. A record of the discussion, including the opening statements as well as the questions and answers, is contained in this special number of the IAEA Bulletin. (author)

Future of Nuclear. Sweden's power struggle comes to a head

Energy Technology Data Exchange (ETDEWEB)

Gatermann, R.; Forbes, A.

2009-03-15

The section 'Future of nuclear' in this magazine this time only holds one brief article on the position of Sweden with regard to nuclear power and a column ('View from London') on the opportunity for nuclear power in the United Kingdom.

The future of nuclear power

International Nuclear Information System (INIS)

Horton, S.G.

1987-01-01

Canadians are heavily dependent upon reliable and affordable sources of energy to sustain their lifestyle. In a world threatened by diminishing energy resources, Canadians need to plan for the future. Canadian electrical utilities must respond to rapidly changing circumstances and uncertainties to ensure that the public's demand for electricity is met with a high quality product. There is a need to strike a proper balance between demand management alternatives and new supply options. Nuclear power will remain as an alternative supply option. The place of CANDU will depend upon its continued high performance, public acceptance and the leadership given to the program

Past and future of nuclear energy. Data can help us understand what we are doing

International Nuclear Information System (INIS)

Stritar, A.

2000-01-01

Paper is a continuation of the similar paper presented about one year ago at the same conference. Judgement about current position and future of the use of nuclear power is much too often created from non-realistic sources, while facts are not known enough. Some less known analytical data are concisely presented in this paper. Such are the growth of the consumption of nuclear energy compared to other energy sources, the prediction of the future growth of installed nuclear power around the World, estimated number of shutdown reactors in the future, distribution of nuclear power by continents etc. Paper is only a brief summary of the comprehensive data base about nuclear power plants, that we are maintaining at the Nuclear Training Centre in Ljubljana. (author)

Development status of PIUS/ISER - a inherently safe reactor for the international use

International Nuclear Information System (INIS)

Wakabayashi, Hiroaki

1987-01-01

It is just in early 1980s that LWR-based nuclear power has become a substantial power source. Though the safety level of nuclear power is always claimed to be sufficiently high by the industry, it rests on the idea of defense in depth, the calculation by probabilistic risk assessment (PRA) or probabilistic safety assessment (PSA). The TMI-2 and Chernobyl-4 accidents occurred in the industrially most advanced countries. In this paper, an alternative way to safe nuclear power is sought in so-called inherently safe reactors (ISR) including the LWR type PIUS/ISER. With proper consideration into the design of nuclear reactor plants, those can be made basically safe through the use of passive safe mechanism for their design. In short, an ISR is a nuclear power reactor which has passive and intrinsic core cooling capability and automatic shutdown capability. As the nuclear power reactors which are currently claimed to be inherently safe, there are the process inherent and ultimately safe reactor (PIUS) of ASEA-ATOM Sweden and the inherently safe and economical reactor (ISER) of the University of Tokyo, Japan, of LWR type. The current status of the development, the reliability, and some technical problems of ISER/PIUS and the attitude of various countries toward ISER/PIUS are described. (Kako, I.)

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

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

International Symposium on Nuclear Energy SIEN 2007. Nuclear Power - A New Challenge

International Nuclear Information System (INIS)

Stiopol, Mihaela

2007-01-01

The Symposium organized by Romanian Nuclear Energy Association, AREN, in co-operation with Romanian Atomic Forum, ROMATOM, was primarily targeting the expert community involved in developing new nuclear power projects and implementing the National Nuclear Program. The symposium was also open as a dicussion and information forum for scientists, engineers, technicians and students interested in scietific and technologic topics of Nuclear Power such as: - Developing the new nuclear technologies; - Identifying new avenues for developing nuclear programs; - strengthening the public confidence and support in nuclear power technology as the energy resource fulfilling most safely the environment protection requirements with the lowest cost-efficient power technology and as the most secure, sustainable solution satisfying the ever raising energy demand. Thus the main objectives was to analyse the New Challenges of Nuclear Power for near future and long-term sustainable socio-economic development. The Symposium was structured in 5 sessions covering the following topics: S1. Developing the new nuclear technologies; S2. Operation, inspection and maintenance; S3. Enhancing nuclear safety features; S4. Fuel cycle and waste management; S5. Public acceptance and confidence strengthening. A poster session of 8 presentations and a workshop completed the Symposium works. Three topics were selected for the workshop as follows: QA Management within the European Integration; Young generation 'Building the Future'; Women in Nuclear and the EU Nuclear Programs Developing

A study on future nuclear reactor technology and development strategy

Energy Technology Data Exchange (ETDEWEB)

Kim, S. Y.; Kim, S. H.; Sohn, D. S.; Suk, S. D.; Zee, S. K.; Yang, M. H.; Kim, H. J.; Park, W. S

2000-12-01

Development of nuclear reactor and fuel cycle technology for future is essential to meet the current issues such as enhancement of nuclear power reactor safety, economically competitive with gas turbine power generation, less production of radioactive waste, proliferation resistant fuel cycle, and public acceptance in consideration of lack of energy resources in the nuclear countries worldwide as well as in Korea. This report deals with as follows, 1) Review the world energy demand and supply perspective and analyse nature of energy and sustainable development to set-up nuclear policy in Korea 2) Recaptitulate the current long term nuclear R and D activities 3) Review nuclear R and D activities and programs of USA, Japan, France, Russia, international organizations such as IAEA, OECD/NEA 4) Recommend development directions of nuclear reactors and fuels.

A study on future nuclear reactor technology and development strategy

International Nuclear Information System (INIS)

Kim, S. Y.; Kim, S. H.; Sohn, D. S.; Suk, S. D.; Zee, S. K.; Yang, M. H.; Kim, H. J.; Park, W. S.

2000-12-01

Development of nuclear reactor and fuel cycle technology for future is essential to meet the current issues such as enhancement of nuclear power reactor safety, economically competitive with gas turbine power generation, less production of radioactive waste, proliferation resistant fuel cycle, and public acceptance in consideration of lack of energy resources in the nuclear countries worldwide as well as in Korea. This report deals with as follows, 1) Review the world energy demand and supply perspective and analyse nature of energy and sustainable development to set-up nuclear policy in Korea 2) Recaptitulate the current long term nuclear R and D activities 3) Review nuclear R and D activities and programs of USA, Japan, France, Russia, international organizations such as IAEA, OECD/NEA 4) Recommend development directions of nuclear reactors and fuels

Global economics/energy/environmental (E{sup 3}) modeling of long-term nuclear energy futures

Energy Technology Data Exchange (ETDEWEB)

Krakowski, R.A.; Davidson, J.W.; Bathke, C.G.; Arthur, E.D.; Wagner, R.L. Jr.

1997-09-01

A global energy, economics, environment (E{sup 3}) model has been adopted and modified with a simplified, but comprehensive and multi-regional, nuclear energy module. Using this model, consistent nuclear energy scenarios are constructed. A spectrum of future is examined at two levels in a hierarchy of scenario attributes in which drivers are either external or internal to nuclear energy. Impacts of a range of nuclear fuel-cycle scenarios are reflected back to the higher-level scenario attributes. An emphasis is placed on nuclear materials inventories (in magnitude, location, and form) and their contribution to the long-term sustainability of nuclear energy and the future competitiveness of both conventional and advanced nuclear reactors.

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.

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

How safe are nuclear reactors?

International Nuclear Information System (INIS)

Krieg, R.

1988-04-01

The author, dealing with nuclear safety studies for many years, presents his own view and experience. He gives an interesting description understandable for non-experts. Also delicate problems, pretty often discussed in the public, are included. Starting with the Chernobyl accident he explains the consequences of the radiation exposure and critizes the reaction of relevant social groups including nuclear experts and politicians. The conceivable accident scenarios for German plants are described. Also severe accidents, because of their low probability not considered during the licensing procedure, are discussed. The resulting risks are compared with other known risks. Finally, some hints on the reliability of the assessments are given. Essential negative aspects of nuclear power are due to social political problems. For people the real understanding of risks is difficult. Participation in the work is often impossible. Poor understanding leads to wrong reactions causing political instabilities. On the other hand, energy is the key for all life. A historical view underlines this. Therefore, the potentials but also the environmental impacts of different energy sources - fossil, nuclear and the so-called alternative energies - are compared. Especially the robbery of the fossil energy sources and the severe consequences for our climate are adressed. The author presents a well balanced view of the problems. He asks the reader to think about it and to draw his own conclusions. (orig.) [de

Japanese Strategy for Nuclear Energy Research and Development For the Future

Energy Technology Data Exchange (ETDEWEB)

Ihara, Yoshinori [Japan Atomic Energy Research Institute, Tokyo (Japan)

1988-04-15

As for the research and development of nuclear energy, the future is, I believe, very broad, deep and promising and there are still unnoticed frontiers whose development will give rise to the evolution of human society. In order to cultivate the frontiers we should have insight to distinguish what is fundamental and essential from what in not. We should also have a fighting spirit to challenge our dream. The Japan Atomic Energy Research Institute really wishes to become the place where many scientists and engineers from abroad meet and work with US with insight and a pioneering spirit. About thirty years ago, the first version of the Japanese 'Long-Term Program for Development and Utilization of Nuclear Energy' was drawn up by the Atomic Energy Commission for the first time. Since then, the Long-Term Program has been revised once every five years. The research, development and utilization of nuclear energy in Japan have been guided by the Long-Term Program, and it has clearly shown the Japanese strategy for Nuclear Energy R and D for the future at each stage of the for Nuclear Energy R and D for the future at each stage of the history. The latest version of the Long-Term Program was published in June 1987. It defines the outline of the philosophy and the scheme for promoting the basic measures related to the research, development and utilization of nuclear energy up to the year 2000 based on the long-range nuclear energy policy towards the 21st century. This Long-Term Program was drawn up by taking into consideration the essential changes of the by taking into consideration the essential changes of the environment surrounding nuclear energy during recent years from the viewpoints of the supply and demand for energy, the rise of public concern for nuclear safety, the role of nuclear research and development for the advancement of science and technology, and the international nuclear energy issues. In this article, the author would like to describe the basic

Japanese Strategy for Nuclear Energy Research and Development For the Future

International Nuclear Information System (INIS)

Ihara, Yoshinori

1988-01-01

As for the research and development of nuclear energy, the future is, I believe, very broad, deep and promising and there are still unnoticed frontiers whose development will give rise to the evolution of human society. In order to cultivate the frontiers we should have insight to distinguish what is fundamental and essential from what in not. We should also have a fighting spirit to challenge our dream. The Japan Atomic Energy Research Institute really wishes to become the place where many scientists and engineers from abroad meet and work with US with insight and a pioneering spirit. About thirty years ago, the first version of the Japanese 'Long-Term Program for Development and Utilization of Nuclear Energy' was drawn up by the Atomic Energy Commission for the first time. Since then, the Long-Term Program has been revised once every five years. The research, development and utilization of nuclear energy in Japan have been guided by the Long-Term Program, and it has clearly shown the Japanese strategy for Nuclear Energy R and D for the future at each stage of the for Nuclear Energy R and D for the future at each stage of the history. The latest version of the Long-Term Program was published in June 1987. It defines the outline of the philosophy and the scheme for promoting the basic measures related to the research, development and utilization of nuclear energy up to the year 2000 based on the long-range nuclear energy policy towards the 21st century. This Long-Term Program was drawn up by taking into consideration the essential changes of the by taking into consideration the essential changes of the environment surrounding nuclear energy during recent years from the viewpoints of the supply and demand for energy, the rise of public concern for nuclear safety, the role of nuclear research and development for the advancement of science and technology, and the international nuclear energy issues. In this article, the author would like to describe the basic

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)

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)

Key regulatory challenges for future nuclear power plants

International Nuclear Information System (INIS)

Todreas, Neil E.

2001-01-01

Key regulatory challenges for future nuclear power plants are concerned with fuel and cladding materials taken to higher burnup and operated at higher temperatures. Particular challenges are related to reduction in waste toxicity, understanding and control of coolant corrosion, qualification of fuel particles, new maintenance practices

Innovative real time simulation training and nuclear probabilistic risk assessment

International Nuclear Information System (INIS)

Reisinger, M.F.

1991-01-01

Operator errors have been an area of public concern for the safe operation of nuclear power plants since the TMI2 incident. Simply stated, nuclear plants are very complex systems and the public is skeptical of the operators' ability to comprehend and deal with the vast indications and complexities of potential nuclear power plant events. Prior to the TMI2 incident, operator errors and human factors were not included as contributing factors in the Probabilistic Risk Assessment (PRA) studies of nuclear power plant accidents. More recent efforts in nuclear risk assessment have addressed some of the human factors affecting safe nuclear plant operations. One study found four major factors having significant impact on operator effectiveness. This paper discusses human factor PRAs, new applications in simulation training and the specific potential benefits from simulation in promoting safer operation of future power plants as well as current operating power plants

High energy nuclear beams at Berkeley: present and future possibilities

International Nuclear Information System (INIS)

Schroeder, L.S.

1984-01-01

The primary goal of the Bevalac research program continues to be the study of nuclear matter at extreme conditions of temperature and baryon density while still addressing more conventional aspects of nuclear physics. Future plans are for a colliding beam machine in the energy range of 20 GeV/n. The conceptual design and basin requirements for such a relativistic nuclear collider (RNC) are outlined. In addition the central physics themes to be addressed by an RNC are briefly discussed

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

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.)

Design Basis Provisions for New and Existing Nuclear Power Plants and Nuclear Fuel Cycle Facilities in India

International Nuclear Information System (INIS)

Soni, R.S.

2013-01-01

India has 3-Stage Nuclear Power Program. • Various facilities under design, construction or operation. • Design Basis Knowledge Management (DBKM) is an important and challenging task. • Design Basis Knowledge contributes towards: - Safe operation of running plants; - Design and construction of new facilities; - Addresses issues related to future decommissioning activities

Small intrinsically safe reactor implications

International Nuclear Information System (INIS)

Wakabayashi, Hiroaki

1985-01-01

Reviewing the history of nuclear power, it is found that peaceful uses of nuclear power are children of the war-like atom. Importance of special growth in a shielded environment is emphasized to exploit fully the advantages of nuclear power. Nuclear power reactors must be safe for their assimilation into society from the points of view of both technology and social psychology. ISR/ISER is identified as a missing link in the development of nuclear power reactors from this perspective and advocated for international development and utilization, being unleashed from the concerns of politicization, safety, and proliferation

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)

Asia's nuclear future

International Nuclear Information System (INIS)

Overholt, W.H.

1977-01-01

The book is a collection of seven papers by five specialists--two political scientists; a sociologist; and two specialists in the interaction between science and international affairs. They share a disregard for conventional boundaries between disciplines and for the emphasis on method over substance which have tended to fragment knowledge into ever-smaller and smaller fragments. The papers are: The Next Phase in Nuclear Proliferation Research, L.A. Dunn and W.H. Overholt; China as a Nuclear Power, J. D. Pollack; Nuclear Arms and Japan, Herbert Passin; Nuclear Proliferation in Eastern Asia, W. H. Overholt; India's Nuclear Program: Decisions, Intent, and Policy, 1950 to 1976, Onkar Marwah; India, Pakistan, Iran--A Nuclear Proliferation Chain, L. A. Dunn; and A U.S. Nuclear Posture for Asia, W. H. Overholt

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)

Report of the International Consultative Group on Nuclear Energy

International Nuclear Information System (INIS)

Anon.

1980-01-01

The International Consultative Groups on Nuclear Energy adopted as its working premise the proposition that nuclear power will play a significant part in meeting future energy needs in an increasing number of countries. The Group's concern has been to examine the international political and economic conditions under which civil nuclear activities may be conducted safely, rationally, and in a manner generally acceptable to the world community. The views are presented in sections entitled: Energy and Nuclear Power; Establishing Nuclear Options; Nuclear Safety and the Public Interest; Nuclear Trade and Nuclear Proliferation; Conditions for the Future in which five conditions are summarized. The Group believes that if nuclear power is to be available to meet an increasing fraction of the world's future energy needs, nuclear power must, despite the difficulty of the sort-term climate, be systematically developed, without interruption or undue delay; earn and retain public acceptance; present technologies for using uranium more efficiently and be developed and tested as soon as possible, with both the coming decades and the 21st century in mind; be less feared; and convince countries depending on nuclear technology, services, or materials of continued international access to them under safeguards, on acceptable terms

Oil and nuclear power: Past, present, and future

International Nuclear Information System (INIS)

Toth, Ferenc L.; Rogner, Hans-Holger

2006-01-01

The relationship between oil and nuclear energy in the global energy scene over the past 50 years is analysed. The former nuclear-oil product competition in power generation and various end-use markets is found to have transformed into a complementary relationship. Current concerns associated with both energy sources and related technologies, including price volatility, supply security, geopolitical sensitivity, depletion alarms, and environmental pollution issues for oil, economic performance, operational safety, proliferation, terrorism, radioactive waste disposal, and the resulting public acceptance for nuclear are examined as determinants of their future roles in the world energy balance. An assessment of the long-term prospects for oil and nuclear energy is presented at the scale of a century to support further economic and energy policy analyses. It is the first in-depth study of global energy projections based on a comparative examination of long-term socio-economic scenarios and their coordinated quantifications by a set of integrated energy-economy models

Nuclear and radiochemistry in China. Present status and future perspectives

International Nuclear Information System (INIS)

Shi, W.Q.; Zhao, Y.L.; Chai, Z.F.

2012-01-01

Nuclear and radiochemistry is one of the frontier areas of chemistry with high impact on national security, energy supply, scientific advances, social and economic development. Nuclear and radiochemistry in China is now experiencing a renaissance, which is being strongly motivated by China's huge demand for nuclear energy. With this in review, the progress in nuclear and radiochemistry of China is selectively addressed. Some hot topics have been summarized and the main research results achieved by Chinese scientists in this field are highlighted, with emphasis on the basic nuclear chemistry, actinide and trans-actinide chemistry, chemistry of spent nuclear fuel reprocessing, radioanalytical chemistry, environmental radiochemistry and radiopharmaceutical chemistry, etc. Some measures about how to promote the radiochemical education and research in China are suggested, and future perspectives are briefly outlined as well. (orig.)

Chernobyl new safe confinement

International Nuclear Information System (INIS)

Dodd, L.

2011-01-01

The author presents the new safe confinement that will be commissioned at Unit 4 of the Chernobyl NPP in 2015. The confinement will ensure that Chernobyl Unit 4 will be placed in an environmentally safe condition for at least next 100 years. The article highlights the current work status, future perspectives and the feasibility of confinement concept [ru

Future Expectation for China's Nuclear Power

Institute of Scientific and Technical Information of China (English)

无

2009-01-01

@@ China:the future of nuclear power Wang Yonggan:In terms of the highlighted issue of energy security,oil is of paramount importance,coal is the foundation and electricity is the pivot according to China's energy strategy.The national total installed power capacity will hit a record high of 900 GW in 2010,and will probably approach 1 500 GW in 2020 when coal-fired power will continue to dominate,and alternative energy such as nuclear energy,hydroenergy,wind energy,and others will take up only 30% at most.Therefore,China remains in dire need to create more room for alternative energy.To solve this problem,solutions should be found in the diversification of energy,especially large-scale development of alternative energy,by which a lowered-and ultimately zeroed-growth of coal-fired generating units could be realized,and the target of low,even zero carbon emission could come true.

How safe are nuclear safeguards

International Nuclear Information System (INIS)

Sullivan, E.

1979-01-01

Reports of weaknesses in IAEA safeguards have alarmed the US and since September 1977, US officials have refused to certify that the IAEA can adequately safeguard nuclear material the US exports. For political reasons, the IAEA safeguards system cannot perform an actual policing role or physically protect strategic material. The IAEA can only send out inspectors to verify bookkeeping and install cameras to sound the alarm should a diversion occur. Based on these IAEA reports and on interviews with scientists and US officials, the following serious problems hampering the Agency's safeguards effort can be identified: no foolproof safeguards for commercial reprocessing plants, uranium enrichment facilities, or fast breeder reactors; equipment failure and unreliable instruments; faulty accounting methods; too few well-trained inspectors; restrictions on where inspectors can go; commercial conflicts. Programs by the US, Canada, West Germany, Japan, and developing nations devised to better safeguards are briefly discussed. Some experts question whether international safeguards can be improved quickly enough to successfully deter nuclear weapons proliferation, given the rapid spread of nuclear technology to the third world

The application of knowledge management and TRIZ for solving the safe shutdown capability of fire alarms in nuclear power plants

International Nuclear Information System (INIS)

Wang, Chia-Nan; Chen, Hsin-Po; Hsueh, Ming-Hsien; Chin, Fong-Li

2017-01-01

The Fukushima nuclear disaster in 2011 has raised widespread concern over the safety of nuclear power plants. This study employed knowledge management in conjunction with the Teoriya Resheniya Izobreatatelskih Zadatch (TRIZ) method in the formulation of a database to facilitate the evaluation of post-fire safe shutdown capability with the aim of safeguarding nuclear facilities in the event of fire. The proposed approach is meant to bring facilities in line with US Nuclear Regulatory Commission (NRC) standards. When implemented in a case study of an Asian nuclear power plant, our method proved highly effective in the detection of 22 cables that fell short of regulatory requirements, thereby reducing 850,000 paths to 0. This study could serve as reference for industry and academia in the development of systematic approaches to the upgrading of nuclear power plants.

The application of knowledge management and TRIZ for solving the safe shutdown capability of fire alarms in nuclear power plants

Energy Technology Data Exchange (ETDEWEB)

Wang, Chia-Nan; Chen, Hsin-Po; Hsueh, Ming-Hsien; Chin, Fong-Li [National Kaohsiung Univ. of Applied Sciences, Kaohsiung City, Taiwan (China). Dept. of Industrial Engineering and Management

2017-11-15

The Fukushima nuclear disaster in 2011 has raised widespread concern over the safety of nuclear power plants. This study employed knowledge management in conjunction with the Teoriya Resheniya Izobreatatelskih Zadatch (TRIZ) method in the formulation of a database to facilitate the evaluation of post-fire safe shutdown capability with the aim of safeguarding nuclear facilities in the event of fire. The proposed approach is meant to bring facilities in line with US Nuclear Regulatory Commission (NRC) standards. When implemented in a case study of an Asian nuclear power plant, our method proved highly effective in the detection of 22 cables that fell short of regulatory requirements, thereby reducing 850,000 paths to 0. This study could serve as reference for industry and academia in the development of systematic approaches to the upgrading of nuclear power plants.

Artificial intelligence: the future in nuclear plant maintenance

International Nuclear Information System (INIS)

Norgate, G.

1984-01-01

The role of robotics and remote handling equipment in future nuclear power plant maintenance activities is discussed in the context of artificial intelligence applications. Special requirements manipulators, control systems, and man-machine interfaces for nuclear applications are noted. Tasks might include inspection with cameras, eddy current probes, and leak detectors; the collection of material samples; radiation monitoring; and the disassembly, repair and reassembly of a variety of system components. A robot with vision and force sensing and an intelligent control system that can access a knowledge base is schematically described. Recent advances in image interpretation systems are also discussed

Nuclear power in the Asia-Pacific region. Current status and future perspective

International Nuclear Information System (INIS)

Hao, Jia; Otsuki, Takashi; Irie, Kazutomo

2017-01-01

This paper presents the current status and future perspective of nuclear power in the APEC region. We design three scenarios, including Low-nuclear Scenario, Business-as-Usual Scenario (BAU) as well as High-nuclear Scenario, in order to quantitatively evaluate contribution of nuclear power to the low-carbon energy system. Preliminary results from the modeling are presented in the paper, and the drivers and challenges for nuclear power development in the APEC region are discussed. (author)

Does nuclear proliferation in Asia threaten the future of the NPT?

International Nuclear Information System (INIS)

Vandier, Pierre

2005-01-01

Asia is a region which presents all kinds of situation with respect to nuclear proliferation: nuclear countries, proliferating countries, countries non members of the NPT, countries violating the NPT, pacifist countries, threshold countries, and so on. Through an assessment of nuclear proliferation in Asia, the author first outlines the weaknesses of the Non Proliferation Treaty (NPT), and then discusses origins of tensions which may re-launch a nuclear arms race. In a third part, the author assesses the future of the Treaty within the arrangement for the struggle against nuclear proliferation as its has been strengthened in 2005

Forbidden love. A French position on the future of nuclear energy

International Nuclear Information System (INIS)

Jaureguy-Naudin, Maite

2013-01-01

The French electricity supply system is based on nuclear energy, with three quarters of total electricity production originating from nuclear power plants. The sector has grown continuously over a period of 60 years. For a long time the realms of politics and science were in consensus about the use of nuclear energy for civil purposes, but now the French nuclear dogma is increasingly being called into question as a result of the disaster in Fukushima, the German decision to phase out nuclear energy and European energy policy in general. How will France shape its future energy policy given these altered framework conditions?

Nuclear energy

International Nuclear Information System (INIS)

Rippon, S.

1984-01-01

Do we need nuclear energy. Is it safe. What are the risks. Will it lead to proliferation. The questions are endless, the answers often confused. In the vigorous debates that surround the siting and operation of nuclear power plants, it is all too easy to lose sight of the central issues amid the mass of arguments and counter-arguments put forward. And there remains the doubt, who do we believe. This book presents the facts, simply, straightforwardly, and comprehensibly. It describes the different types of nuclear reactor, how they work, how energy is produced and transformed into usable power, how nuclear waste is handled, what safeguards are built in to prevent accident, contamination and misuse. More important, it does this in the context of the real world, examining the benefits as well as the dangers of a nuclear power programme, quantifying the risks, and providing an authoritative account of the nuclear industry worldwide. Technically complex and politically controversial, the contribution of nuclear energy to our future energy requirements is a crucial topic of our time. (author)

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)

Advancing the competitive future of nuclear power through partnerships

International Nuclear Information System (INIS)

Pryor, Charles W.

2002-01-01

Full text: The emergence of competitive markets, coupled with significant environmental benefits, will create a period of tremendous opportunity and enhanced value for commercial nuclear power plants, both existing plants and those on the immediate horizon. The challenge for nuclear plant owners and operators is to reduce costs and improve performance in order to improve the plants net earnings stream and remain competitive with other forms of generation. In his remarks, Dr. Pryor will examine the excellent performance of nuclear plants worldwide and look at the significant value yet to be captured from existing plants. Continued capacity factor improvement driven primarily by shorter outages will help, but new business practices will be needed in the future to achieve competitive production costs of around 1cent/kwh at the bus bar. Dr. Pryor will explore innovative approaches to resource sharing and integration that already are paying dividends worldwide. Beyond this immediate need for greater cooperative efforts is the necessity of longer-range strategies implementing advanced technologies in new plant designs. Although energy demand and environmental benefits are driving renewed interest in nuclear power, the cost challenge for new plants remains significant. Dr. Pryor will discuss the cost challenge, new designs that are available to meet market demand, and the role of utility/supplier partnerships in current and future new plant projects. (author)

How safe are nuclear power plants

Energy Technology Data Exchange (ETDEWEB)