Agency: Cordis | Branch: H2020 | Program: MSCA-RISE | Phase: MSCA-RISE-2014 | Award Amount: 2.31M | Year: 2015
European particle physics groups interested in searching signals of new physics both with neutrinos, at T2K experiment, and at the intensity frontier, with the Belle-II experiment at the SUPERKEKB machine, want to share between them and with KEK laboratory their knowledge in data analysis and detector technologies. Such knowledge sharing will enhance skills and competences of all participants, will allow Europe to play a primary role in the search for deviations from the actually known fundamental physics in the flavour sector and, last but not least, will produce an unprecedented collaboration with japanese scientists on the ground of dissemination and outreach.
Agency: Cordis | Branch: H2020 | Program: CSA | Phase: NFRP-14-2014 | Award Amount: 1.20M | Year: 2015
The region of the European Union around the Baltic sea especially the countries Estonia, Latvia and Lithuania are not adequately integrated to the European electricity grid. At the end of 2009 Ignalina NPP (Lithuania), which generated ~70-75 % of electricity in Lithuania and supplied electricity to Latvia and Estonia was permanently shutdown leaving the region without nuclear power generation. Lithuania, Estonia and Latvia are discussing building new NPP of ABWR type in Visaginas (Lithuania). Poland employed its own program for nuclear energy and is a potential partner for Visaginas NPP as well. New electricity grid interconnections Lithuania - Sweden and Lithuania - Poland are under construction and should start operation at the end of 2015 provide possibilities for synchronization of the electricity grid of the Baltic region with the continental Europe. Building new NPP affects the whole region not only in technological but in macroeconomic field as well. Different level of nuclear safety and radiation safety knowledge as well as R&D infrastructure exists in countries of the Baltic region. BRILLIANT is developed to find an optimal regional solution by creation of cooperation platform for modern electrical power solutions. This will be achieved by identifying the barriers for nuclear power development in Baltic region and preparing a ground for overcoming them. The project will support the exchange of knowledge, competences and infrastructure among the countries of Baltic region - Estonia, Latvia, Lithuania, Poland and Sweden. The company VAE SPB (Lithuania) is established for implementation of preparatory works of new Visaginas NPP. VAE SPB is an industrial partner in the project providing valuable insights and information. Cooperation among project partners would give better synergies with on-going and future Euratom projects in particular those offering access to research infrastructures in conjunction with education and training.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: BES-09-2014 | Award Amount: 11.83M | Year: 2015
Efficient NII (non-intrusive inspection) of containerised freight is critical to trade and society. Freight containers are potential means for smuggling (e.g. tobacco), illegal immigration, trafficking of drugs, mis-declared goods and dangerous illicit substances, including explosives, nuclear material, chemical and biological warfare agents and radioactively contaminated goods. One inspection NII technology cannot cope with all these targets. The C-BORD Toolbox and Framework will address all these targets and enable customs to deploy comprehensive cost-effective container NII solutions to potentially protect all EU sea- and land-borders, satisfying a large range of container NII needs. The C-BORD Toolbox will include 5 complementary innovative detection technologies: delivering improved X-rays, Target Neutron Interrogation, Photofission, Sniffing and Passive Detection. User interfaces and data will be integrated to optimise effectiveness and efficiency of end-users and systems. The C-BORD Framework will help customs analyse their needs, design integrated solutions, and optimise the container inspection chain; it will address detection levels, false alarm levels, throughput, health & safety, logistics and cost & benefits. C-BORD will increase the probability of finding illicit or dangerous content with at least equal throughput of containers per time unit, reduce the need for costly, time-consuming and dangerous manual container inspections by customs officials, and in case a container is opened, increase the probability of finding illicit materials. C-BORD involves stakeholders from 8 EU countries, as partners (5) and advisory group members (3). On 3 custom sites integrated solutions will be trialled, respectively addressing the needs of big seaports, small seaports and mobile land-borders. To optimise sustainable impact, C-BORD will actively engage with a large community, will support policy implementation, evolution and start early exploitation planning.
Agency: Cordis | Branch: FP7 | Program: CP | Phase: Fission-2012-2.1.1 | Award Amount: 9.33M | Year: 2013
After the 2011 disaster that occurred in Japan, improvement of nuclear safety appears more clearly as a paramount condition for further development of nuclear industry. The NURESAFE project addresses engineering aspects of nuclear safety, especially those relative to design basis accidents (DBA). Although the Japanese event was a severe accident, in a process of defense-in-depth, prevention and control of DBA is obviously one of the priorities in the process of safety improvement. In this respect, the best simulation software are needed to justify the design of reactor protection systems and measures taken to prevent and control accidents. The NURESAFE project addresses safety of light water reactors which will represent the major part of fleets in the world along the whole 21st century. The first objective of NURESAFE is to deliver to European stakeholders a reliable software capacity usable for safety analysis needs and to develop a high level of expertise in the proper use of the most recent simulation tools. Nuclear reactor simulation tools are of course already widely used for this purpose but more accurate and predictive software including uncertainty assessment must allow to quantify the margins toward feared phenomena occurring during an accident and they must be able to model innovative and more complex design features. This software capacity will be based on the NURESIM simulation platform created during FP6 NURESIM project and developed during FP7 NURISP project which achieved its goal by making available an integrated set of software at the state of the art. The objectives under the work-program are to develop practical applications usable for safety analysis or operation and design and to expand the use of the NURESIM platform. Therefore, the NURESAFE project concentrates its activities on some safety relevant situation targets. The main outcome of NURESAFE will be the delivery of multiphysics and fully integrated applications.
Agency: Cordis | Branch: FP7 | Program: CP-CSA | Phase: Fission-2013-2.2.1 | Award Amount: 10.36M | Year: 2013
Preparing ESNII for HORIZON 2020 The aim of this cross-cutting project is to develop a broad strategic approach to advanced fission systems in Europe in support of the European Sustainable Industrial Initiative (ESNII) within the SET-Plan. The project aims to prepare ESNII structuration and deployment strategy, to ensure efficient European coordinated research on Reactor Safety for the next generation of nuclear installations, linked with SNETP SRA priorities. The ESNII\ project aims to define strategic orientations for the Horizon 2020 period, with a vision to 2050. To achieve the objectives of ESNII, the project will coordinate and support the preparatory phase of legal, administrative, financial and governance structuration, and ensure the review of the different advanced reactor solutions. The project will involve private and public stakeholders, including industry, research and academic communities, with opened door to international collaboration, involving TSO.
Agency: Cordis | Branch: FP7 | Program: CP-CSA-Infra | Phase: INFRA-2012-1.1.24. | Award Amount: 23.40M | Year: 2013
Research accelerators are facing important challenges that must be addressed in the years to come: existing infrastructures are stretched to all performance frontiers, new world-class facilities on the ESFRI roadmap are starting or nearing completion, and strategic decisions are needed for future accelerators and major upgrades in Europe. While current projects concentrate on their specific objectives, EuCARD-2 brings a global view to accelerator research, coordinating a consortium of 40 accelerator laboratories, technology institutes, universities and industry to jointly address common challenges. By promoting complementary expertise, cross-disciplinary fertilisation and a wider sharing of knowledge and technologies throughout academia and with industry, EuCARD-2 significantly enhances multidisciplinary R&D for European accelerators. This new project will actively contribute to the development of a European Research Area in accelerator science by effectively implementing a distributed accelerator laboratory in Europe. Transnational access will be granted to state-of-the-art test facilities, and joint R&D effort will build upon and exceed that of the ongoing EuCARD project. Researchers will concentrate on a few well-focused themes with very ambitious deliverables: 20 T accelerator magnets, innovative materials for collimation of extreme beams, new high-gradient high-efficiency accelerating systems, and emerging acceleration technologies based on lasers and plasmas. EuCARD-2 will include six networks on strategic topics to reinforce synergies between communities active at all frontiers, extending the scope towards innovation and societal applications. The networks concentrate on extreme beam performance, novel accelerator concepts with outstanding potential, energy efficiency and accelerator applications in the fields of medicine, industry, environment and energy. One network will oversee the whole project to proactively catalyze links to industry and the innovation potential.
Agency: Cordis | Branch: H2020 | Program: RIA | Phase: NFRP-01-2014 | Award Amount: 8.21M | Year: 2015
The stabilization of molten corium is recognised as essential if a safe and stable state is to be reached following a severe accident. Among the possible options, In-Vessel Melt Retention (IVMR) appears as an attractive solution that would minimize the risks of containment failure (less Hydrogen produced, no corium-concrete interaction), if it can be proved to be feasible. The strategy is already adopted for the VVER 440 type 213 based on thorough research work for the Finnish Loviisa NPP and Hungarian Paks NPP. It is also included in the design of some new Gen.III reactors like AP-1000, APR 1400 and Chinese CPR-1000. It has also been studied in the past for other reactor concepts like KERENA (BWR) or VVER-640. Current approaches for reactors with relatively small power, such as VVER 440 or AP600, use conservative assumptions. However, for higher power reactors (around 1000 MWe), it is necessary to evaluate the IVMR strategy with best-estimate methods in order to address the uncertainties associated with the involved phenomena. Additional R&D is needed to ensure and demonstrate adequate safety margins, including identification of efficient technical solutions for the external cooling of the vessel and performing best-estimate evaluation of relevant scenarios. Among other provisions, the possibility of cooling the corium inside the vessel by direct injection of water into the degraded core, may be considered because it is likely to remove a significant part of the residual power. The goal of the project is an analysis of the applicability and technical feasibility of the IVMR strategy to high power reactors, both for existing ones (e.g. VVER 1000 type 320 units) as well as for future reactors of different types (PWR or BWR). The main outcomes of the project will be elevant assumptions and scenarios to estimate the maximum heat load on the vessel wall, improved numerical tools for the analysis of IVMR issues and a harmonized methodology on the IVMR.
Agency: Cordis | Branch: H2020 | Program: CSA | Phase: NFRP-14-2014 | Award Amount: 1.09M | Year: 2015
After a common expression of willingness to cooperate and legal establishment of V4G4 Centre of Excellence Association, VINCO project represents the next stage of capacity building in nuclear technologies in Central European countries. Participating countries defined already their specializations: helium technology in Czech Republic, design and safety analyses in Slovakia, fuel studies in Hungary and material research in Poland. Having such expertise, the joint development of Gen IV nuclear technologies with the special emphasis on gas-cooled reactors is fully possible. Thus, the main objectives of the regional VINCO project are: (i) development of the principles of cooperation and rules of access to existing and planned infrastructure, (ii) identification of the specific objectives of the R & D activities in the cooperating countries, (iii) description and analysis of the existing research, training and educational equipment and capabilities, (iv) determination of the investment priorities in cooperating countries and (v) setting up of joint research, educational and training projects. It is expected that the joint activities will result in coordination of actions allowing to obtain financing from the Structural Funds available for the Visegrad countries. These funds would allow for a huge increase of mass and modernization of the research potential in the region. Close cooperation with other EU institutions (mainly CEA, France) will ensure better description of the investments needed in Visegrad Region, tightening of pan-European cooperation and strengthening of the role of V4 countries, helping them to evolve from users to the suppliers of R&D capabilities in nuclear technologies. A major expected impact of the project would be setting up of a distributed regional research centre specialized in nuclear technologies needed to develop Gen IV reactors and to improve safe operation of existing and planned Nuclear Power Plants in the region.
Agency: Cordis | Branch: FP7 | Program: CP-FP | Phase: SEC-2012.1.5-2 | Award Amount: 3.41M | Year: 2013
The TAWARA_RTM project aims at developing a complete platform to control the quality of the tap water with respect to the radioactivity content. The platform will provide a real time measurement of the activity in the water (measuring the gross alpha and beta activity) to verify whether the distributed water is far from the limits set by the EU legislation (see Directive 98/83/CE of the European Council) reaching thresholds that require rapid actions. In case of an alarm due to an activity in the water lager than the defined thresholds, a warning message is sent to the water plant management to verify the need of stopping the water distribution. At the same time, a second part of the system is activated, to determine the nature of the contamination by gamma ray spectroscopy, defining the nature of the contamination and the corresponding counter-measures. Moreover, the determination of the contaminants is needed to establish the effects on the population and produce a full information report to the Civil Security Authorities. The prototypes of a real time monitoring system and spectroscopy analyzer will be designed, built, tested under laboratory condition and finally installed at the water plant in the North Waterworks Plant [Zakad Wodocigu Pnocnego] of Warsaw managed by the Warsaw Waterwork Company (Miejskie Przedsibiorstwo Wodocigw i Kanalizacji w m.st. Warszawie S.A. MPWIK), for the demonstration campaign. The site selected for the demonstration is particularly problematic for possible radioactivity contamination being communicating through the network of rivers and canals with the Chernobyl region and being close to a Polish National Nuclear Waste storage site.The TAWARA_RTM project will include the development of the complete platform including the fast Real-Time Monitor system (RTM), the Spectroscopic system (SPEC) as well as the Information and Communication System that will be designed to include in future also chemical and biological sensors.
Agency: Cordis | Branch: H2020 | Program: COFUND-PCP | Phase: INFRASUPP-2-2015 | Award Amount: 6.65M | Year: 2016
The full exploitation of the Large Hadron Collider (LHC) is the highest priority of the European Strategy for particle physics. Because of this accelerator Europe is in a leading global position on High Energy Physics research. To preserve that position, the LHC will need a major upgrade in the 2020s to increase its luminosity by a factor of five beyond its design value. The novel configuration, known as High Luminosity LHC, is based on the development of key innovative technologies representing exceptional technological challenges. The LHC now has an urgent need for magnet technologies at the cutting edge of science which are currently not on the market and are not even being considered by commercial suppliers due to their novelty and low volume production demands. The requirements of the LHC are, among others, long orbit corrector magnets for the necessary adjustment of the particles orbit and two-in-one quadrupoles magnets in charge of providing the strong focusing of particle beams. To the companies that should produce these magnets, the commercial application potential for this technology is at this time - too low. The QUACO project draws together several research infrastructures with similar technical requirements in magnet development, which will allow the avoidance of unnecessary duplication of design effort and reduce overall cost through economies of scale using a joint procurement process. By pooling efforts on technological requirements and using their experience from prior procurements, the partners in QUACO will act as a single buyer group with sufficient momentum for potential suppliers to consider the phased development of the requested magnets. The pre-competitive procurement (PCP) instrument used in this project will thus take away the mismatch between the high-end R&D effort and the existing market for these instruments and allow large and small specialised companies to increase the speed of their own research and technology development.