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Paris, France

Areva is a French multinational group specializing in nuclear and renewable energy headquartered in Paris La Défense. It is the world's largest nuclear company. Its nuclear technology business group was created by absorbing the nuclear business line of German company Siemens; it has developed the EPR, an advanced 3rd generation pressurized water nuclear reactor.The corporate name "Areva" is inspired by the Trappist Santa María la Real monastery in Arévalo in Spain. Wikipedia.

Agency: Cordis | Branch: H2020 | Program: CSA | Phase: NFRP-10-2014 | Award Amount: 3.18M | Year: 2016

The present situation of nuclear energy in Europe asks for a continuing effort in the field of Education and Training aimed to assure a qualified workforce in the next decades. In this scenario, the present proposal is aimed at enhancing and networking the Europe-wide efforts initiated in the past decades by different organisations belonging to academia, research centres and industry to maintain and develop Education and Training in the nuclear fields. This will allow consolidating, developing and better exploiting the achievements already reached in the past and to tackle the present challenges in preparing the European workforce in the nuclear fields. The main objectives of the proposal are: 1. SURVEY AND COORDINATION OF NETWORKING IN E&T AND VET IN THE NUCLEAR AREAS 2. DESIGN AND IMPLEMENTATION OF COORDINATED E&T AND VET EFFORTS (Master and Summer Courses for continuous professional development) 3. GENERATIONAL TRANSFER OF EXPERTISE (Sustainable production of educational material) 4. CROSS BORDER TRANSFER OF EXPERTISE (Implementation of ECVET based exchanges among industrial bodies) 5. REINFORCING ETI ACTIONS FOR SHARING AND ENHANCING NUCLEAR SAFETY CULTURE COMPETENCE 6. FACILITATING THE NUCLEAR TRANSITION IN FUSION: COORDINATING THE E&T ACTIONS The European Nuclear Education Network (ENEN), as coordinator of the proposed action, together with the other Participants, is committed to pursue the above objectives, being fully coherent with the ones suggested in the call (NFRP10) and proposed by the SET Plan Roadmap for Education and Training for the nuclear sector, tightening at the same time the links among the different nuclear areas and better coordinating their contributions in the E&T fields. Strict links with the SNE-TP; IGD-TP and MELODI platforms and other relevant associations and bodies (EHRO-N, NUGENIA, EUTERP, IAEA, HERCA, etc.) will be implemented to assure coherence of this effort with similar other efforts going on in Europe.

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: NFRP-01-2014 | Award Amount: 6.14M | Year: 2015

INCEFA-PLUS delivers new experimental data and new guidelines for assessment of environmental fatigue damage to ensure safe operation of European nuclear power plants. Austenitic stainless steels will be tested for the effects of mean strain, hold time and material roughness on fatigue endurance. Testing will be in nuclear Light Water Reactor environments. The three experimental parameters were selected in the framework of an in-kind project during which the current state of the art for this technical area was developed. The data obtained will be collected and standardised in an online fatigue database with the objective of organising a CEN workshop on this aspect. The gaps in available fatigue data lead to uncertainty in current assessments. The gaps, will be targeted so that fatigue assessment procedures can address behaviour under conditions closer to normal plant operation than is currently possible. Increased safety can thus be assured. INCEFA-PLUS also develops and disseminates a modified procedure for estimating environmental fatigue degradation. This will take better account of the effects of mean strain, hold time and surface finish. This will enable better management of nuclear components, making possible the long term operation (LTO) of NPPs under safer conditions. INCEFA-PLUS is relevant to the NFRP1-2014 programme because: Present guidance originates from NRC. In Europe various national programmes aim to develop counter proposals allowing greater operational efficiency with at least comparable safety assurance. INCEFA-PLUS brings these programmes together through which a strong EU response to the NRC methodology will be obtained with improved safety assurance through increased lifetime assessment reliability. INCEFA-PLUS improves comparability of data from EU programmes because partner laboratories will do some tests on a common material under common conditions. Reduced assessment uncertainty will enable easier maintenance of safety

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: NFRP-03-2014 | Award Amount: 5.24M | Year: 2015

Imagine an inherently safe reactor that produces all electricity world-wide for thousands of years, and recycles all actinides until fission. The Molten Salt Fast Reactor (MSFR) can reach this goal. The cylindrical reactor core contains actinide-fluorides mixed in lithium-fluoride. The liquid salt is at ambient pressure and can freely expand upon heating, giving a strong negative reactivity feedback. The core is in its most reactive state and any geometrical change lead to lower reactivity. In case of hypothetical accidents, the fuel salt will automatically be drained via freeze plugs into fail-safe tanks. The fuel salt is continuously cleaned and controlled in an integrated chemical plant. The MSFR can operate as a breeder reactor in the thorium fuel cycle or as a burner reactor fuelled with plutonium and minor actinides. In short: the MSFR excels in safety, sustainability and optimal waste management. Within SAMOFAR we will perform advanced experiments to proof the key safety features: The freeze plug and draining of the fuel salt Measurement of safety-related data of the fuel salt New coatings to structural materials like Ni-based alloys The dynamics of natural circulation of (internally heated) fuel salts The reductive processes to extract lanthanides and actinides from the fuel salt Furthermore, we will build a software simulator to demonstrate the operational transients, and we will show the mild responses of the MSFR to transients and accident scenarios, using new leading-edge multi-physics simulation tools including uncertainty quantification. All experimental and numerical results will be incorporated into the new reactor design, which will be subjected to a new integral safety assessment method. The goal of SAMOFAR is to deliver indisputable evidence of the excellent safety features of the MSFR, and to enable a consortium of important stakeholders like TSOs and industry, to advance with the MSFR up to the Demonstration phase.

Agency: Cordis | Branch: H2020 | Program: IA | Phase: SPIRE-02-2014 | Award Amount: 9.77M | Year: 2015

MOBILE FLIP aims at developing and demonstrating mobile processes for the treatment of underexploited agro- and forest based biomass resources into products and intermediates. The processes will be evaluated in terms of raw material flexibility, as the biomass resources are typically scattered and seasonal. Process concepts have been designed around the key technologies pelletizing, torrefaction, slow pyrolysis, hydrothermal pretreatment and carbonisation. The products vary depending on the process concept, being typically fuels as such or for co-combustion (pellets, torrefied pellets, biocoals), biochars for soil remediation, biodegradable pesticides for agricultural or forestry use or chemicals for wood panel industry and sugars and hydrolysable cellulose as intermediate for the sugar platform. Some of the products are marketable as such, while some others are intermediates to be further valorised by integrated large industries. In the latter case, the mobile unit pre-extracts the valuable components or densifies the biomass to reduce transportation costs. Over-the-fence integration to large industries will be one means to ensure the availability of utilities, such as steam and electricity, whereas in some mobile process concepts the utilities can be produced at site for internal or external uses. The concept evaluations are supported both by research and industrial (SME and large industries) partners in the whole value chains. Preliminary business plan is presented in the proposal and will be updated during the project. Dissemination, communication and exploitation activities will be an integral part of the project. A milestone is defined in the midterm of the project to identify the most feasible process lines for demonstration. Life-cycle analysis and a wide sustainability evaluation (economic, environmental and social assessment) will be carried out for the process concepts in order to clarify their potential for flexible raw material valorisation.

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: NFRP-06-2014 | Award Amount: 9.66M | Year: 2015

The Modern2020 project aims at providing the means for developing and implementing an effective and efficient repository operational monitoring programme, taking into account the requirements of specific national programmes. The work allows advanced national radioactive waste disposal programmes to design monitoring systems suitable for deployment when repositories start operating in the next decade and supports less developed programmes and other stakeholders by illustrating how the national context can be taken into account in designing dedicated monitoring programmes tailored to their national needs. The work is established to understand what should be monitored within the frame of the wider safety cases and to provide methodology on how monitoring information can be used to support decision making and to plan for responding to monitoring results. Research and development work aims to improve and develop innovative repository monitoring techniques (wireless data transmission, alternative power supply sources, new sensors, geophysical methods) from the proof of feasibility stage to the technology development and demonstration phase. Innovative technical solutions facilitate the integration and flexibility of required monitoring components to ease the final implementation and adaptation of the monitoring system. Full-scale in-situ demonstrations of innovative monitoring techniques will further enhance the knowledge on the operational implementation of specific disposal monitoring and will demonstrate the performance of the state-of-the-art, the innovative techniques and their comparison with conventional ones. Finally, Modern2020 has the ambition to effectively engage local citizen stakeholders in the R&D monitoring activity by involving them at an early stage in a repository development programme in order to integrate their concerns and expectations into monitoring programmes.

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