TECNO FUS: Difference between revisions

# WG 1: Computational neutronics of Modular Dual coolant -DRM-refrigerated by He and by LiPb box]]<ref>[http://dl.dropbox.com/u/7419832/FusionWiki/Abstract_ISFNT10.pdf I. Palermo, J.M. Gómez-Ros, G. Veredas, J. Sanz, L. Sedano. Neutronic Design Analysis for a Dual-Coolant Blanket concept: Optimization for a Fusion Reactor DEMO (ISFNT-10: International Symposium on Fusion Nuclear Technology, Portland, Oregon, USA, 11-16 September 2011) sent to Fusion Eng. Des. (2012)]

</ref><ref>[http://www.sciencedirect.com/science/article/pii/S0920379611003036 J.P. Catalán, F. Ogandoa, J. Sanz, I. Palermo, G. eredas, J.M. Gómez-Ros, L. Sedano,Neutronic analysis of a dual He/LiPb coolant breeding blanket for DEMO, Fusion Engineering and Design 86 (2011) 2293–2296]</ref>;

# WG 3: CDF computational capabilities for Liquid Metal and gas channels of the DRM He/LiPb box and its auxiliary systems, (Thermal Hydraulics), within the subtask 3.1<ref>[http://www.sciencedirect.com/science/article/pii/S0022311511001930 J.Fradera,L. Sedano, E. Mas de les Valls L. Batet, Implementation of two-phase tritium models for helium bubbles in HCLL breeding blanket modules, Journal of Nuclear Materials 417 (2011) 739–742]

# WG 4: Integral CDF computational capabilities for Liquid Metal and gas channels of the DRM He/LiPb box and its auxiliary  systems, (Magneto Hydrodynamics, subtask 3.2)<ref>[http://www.sciencedirect.com/science/article/pii/S0920379611003449 E. Mas de les Valls, L. Batet, V. de Medina, J. Fradera, L.A. Sedano, Qualification of MHD effects in dual-coolant DEMO blanket and approaches to their modelling, Fusion Engineering and Design 86 (2011) 2326–2329]

# WG5: Production of Eurofer steels batches at laboratory, within task 4.1 (Actually strong added value of ASTURFER ® made mainly but not only with ITMA resources<ref>[http://www.reunionanualsne.es/sites/default/files/doc37/ponencias/983377-778336.pdf A.Morán, J. Belzunce, J.M. Artímez, Producción y cualificación, para aplicaciones de Fusión, de un acero de baja actividad ferrítico-martensítico, ASTURFER®]

# WG6: Production of 6Li and eutectic LiPb batches at laboratory, within subtask 4.2 (Actually added value of 15 batches of LiPb fused and refused in different conditions made at UCM and impurities analysed with the ICP-MS of CIEMAT)<ref> A.I.Barrado, M.Fernández, E.Conde, A.Quejido, J.Quiñones, L.Sedano Preliminary studies of in-cell electrophoresis as 6Li enrichment technique, 26th[[Symposium on Fusion Technology]], Fusion Engineering and Design, Volume 86, Issued 14 Jan 2011, Pages 2662-2665</ref><ref>[http://dl.dropbox.com/u/7419832/FusionWiki/UCM%20Informe%20del%20Proyecto%20Tecno-fus.pdf M.I.Barrena, J.M.Gómez de salazar, Alicia Soria, Laura Pascual, Informe del Proyecto CONSOLIDER INGENIO 2010 TECNO-FUS]</ref>];

# WG7: Production of SiC subtask 4.3; the objective of this task is the production routes of ceramic materials based on porous SiC and composite SiCf/SiC, for application as insulating channel inserts (or insulating FCI). This is based on the Modular Dual coolant He/LiPb or TECNO-FUS DRM Liquid Metal. The SiC has been choice due its excellent thermal stability, mechanical and chemical characteristics at high temperatures. Its low thermal expansion, good thermal shock resistance, low corrosion in Pb-15.7Li, low activation and good resistance to neutron irradiation make it the correct working material.<ref>[http://www.sciencedirect.com/science/article/pii/S0920379611003644 Ainhoa Bereciartu, Nerea Ordás, Carmen García-Rosales, Alejandro Moroño, Marta Malo, Eric R. Hodgson, Jordi Abellà, Luis Sedano, Manufacturing and characterization of porous SiC for flow channel inserts in dual-coolant blanket designs, Fusion Engineering and Design 86 (2011) 2526–2529]</ref><ref> [http://www.ceit.es/index.php?option=com_content&view=article&id=91&Itemid=206 TECNO_FUS Project in CEIT website]</ref>;

# WG10: Tritium properties characterisation by means of the selected technologies by EHU-UPV, mainly but not only IDE, within  subtask 4.6<ref> [http://www.reunionanualsne.es/sites/default/files/doc37/sinopsis/11-10%20_205_.pdf  G. Alberro, I. Peñalva, J. Aranburu,F. Legarda, C. Moreno, L. Sedano, TOWARDS STANDARDISATION OF TRITIUM DIFFUSION AND SOLUBILITY MEASUREMENTS IN FUSION REACTOR MATERIALS]</ref>;

# WG12: Devoted to the design of tritium transport analysis and corresponding FPD, within subtask 5.1 <ref>[http://www.sciencedirect.com/science/article/pii/S0920379611002250 P. Martínez, N. Moral, L. Magielsen, A. Fedorov, C. Moreno, J.M. Perlado, L. Sedano, LIBRETTO-4: Understanding and modeling tritium transport under irradiation, Fusion Engineering and Design 86 (2011) 2374–2377] </ref><ref>[http://upcommons.upc.edu/pfc/handle/2099.1/ Modelat del transport de triti en un canal de l'embolcall regenerador de triti d'un reactor de fusió DT. PFC Pau Bermúdez García. Dec-2010]</ref>;

# WG13: The aim of this Group is the Control and monitoring technologies within subtask 5.2 oriented to specific tritium monitoring an control developments: 1. Development of H-partial pressure sensors, 2. Li-title electrochemical sensor and Li-title on-line adjustment techniques, and 3. Composition evolution sensing)<ref>[http://www.sciencedirect.com/science/article/pii/S092037961100041X P. Serret, S. Colominas, G. Reyes, J. Abellà, Characterization of ceramic materials for electrochemical hydrogen sensors,Fusion Engineering and Design 86 (2011) 2446–2449]</ref><ref> [http://www.reunionanualsne.es/sites/default/files/doc37/ponencias/983377-334445.pdf L. Llivina, S. Colominas, J. Abellà,Síntesis y caracterización de cerámicas para sensores de hidrógeno]</ref>;

# WG14: Design of technologies and Plant Systems, which purpose are the Power Conversion  (helium cycles and CO2 cycles) and the new energy vectors for Fusion, within subtask 5.3<ref>[J.I.Linares, L.E.Herranz, B.Y.Moratilla, I.P.Serrano Power conversion systems based on Brayton cycles for fusion reactors 26th[[Symposium on Fusion Technology]], Fusion Engineering and Design 86 (2011) 2735–2738] </ref><ref> [http://dl.dropbox.com/u/7419832/FusionWiki/Linares_JEPE.pdf J.I. Linares, L.E. Herranz, B.Y. Moratilla, I.P. Serrano, Brayton Power Cycles For Electricity Generation From Fusion Reactors Jan. 2010, Volume 4, No.1 (Serial No.26) Journal of Energy and Power Engineering, ISSN 1934-8975, USA]</ref>;

# WG17: Group responsible for the development of the Environmental Impact of the of fusion power plant systems mainly but not only in the atmosphere, running some numerical weather prediction model coupled with some dispersion model to analyse tritium species concentration in air and associated doses, within the subtask 7.2<ref>[http://www.reunionanualsne.es/sites/default/files/doc37/ponencias/983377-886491.pdf P. Castro, M. Velarde, J. Ardao, J. M. Perlado, L. Sedano, Tritiated Clouds Enviromental Impact in Air into the Western Mediterranean Basin Evaluation]

</ref><ref> [http://www.new.ans.org/pubs/journals/fst/a_12665 P. Castro, M. Velarde, J. Ardao, J. M. Perlado, L. Sedano,Consequences of Different Meteorological Scenarios in the Environmental Impact Assessment of Tritium Release ,Fusion Science and Technology / Volume 60 / Number 4 / November 2011 / Pages 1284-1287]</ref><ref>[http://ieeexplore.ieee.org/xpl/freeabs_all.jsp?arnumber=6052268 Castro, P.;   Velarde, M.;   Ardao, J.;  Perlado, J.M.;  Sedano, L.; Differences into HT and HTO concentrations in air into the Western Mediterranean Basin and Continental Europe and safety related issues Fusion Engineering (SOFE), 2011 IEEE/NPSS 24th Symposium on Issue Date: 26-30 June 2011 ] </ref> ;

[[File:Libretto41_42.png‎|420 px|thumb|left|Evolution of the Tritium transferece rate in a first cycle september 2005 of HRF Petten(P.Martínez,CIEMAT N.Moral et al. UPM) <ref>[http://www.sciencedirect.com/science/article/pii/S0920379611002250 P. Martínez, N. Moral, L. Magielsen, A. Fedorov, C. Moreno, J.M. Perlado, L. Sedano, LIBRETTO-4: Understanding and modeling tritium transport under irradiation, Fusion Engineering and Design 86 (2011) 2374–2377] </ref>]]