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Author Woods, P.j. ♦ Macina, D. ♦ Oprea, A. ♦ Colonna, N. ♦ Calviani, M. ♦ Martínez, T. ♦ Saxena, A. ♦ Käppeler, F. ♦ Kavrigin, P. ♦ Kivel, N. ♦ Pavlik, A. ♦ Ventura, A. ♦ Diakaki, M. ♦ Vannini, G. ♦ Wright, T. ♦ Warren, S. ♦ Mendoza, E. ♦ Valenta, S. ♦ Heyse, J. ♦ Ferreira, P. ♦ Cano-Ott, D. ♦ Tagliente, G. ♦ Reifarth, R. ♦ Schillebeeckx, P. ♦ Perkowski, J. ♦ Žugec, P. ♦ Gunsing, F. ♦ García, A.r. ♦ Patronis, N. ♦ Jenkins, D.g. ♦ Ryan, J.a. ♦ Mastromarco, M. ♦ Milazzo, P.m. ♦ Vlastou, R. ♦ Lo, Meo S. ♦ Vaz, P. ♦ Cortés, G. ♦ Cortés-Giraldo, M.a. ♦ Porras, I. ♦ Jericha, E. ♦ Marganiec, J. ♦ Cardella, R. ♦ Berthoumieux, E. ♦ Lerendegui-Marco, J. ♦ Negret, A. ♦ Fernández-Domínguez, B. ♦ Brown, A. ♦ Lederer, C. ♦ Radeck, D. ♦ Mengoni, A. ♦ Durán, I. ♦ Harada, H. ♦ Ferrari, A. ♦ Vlachoudis, V. ♦ Aberle, O. ♦ Bacak, M. ♦ Tsinganis, A. ♦ Wallner, A. ♦ Dupont, E. ♦ Mingrone, F. ♦ Mastinu, P. ♦ Kalamara, A. ♦ Domingo-Pardo, C. ♦ Tain, J.l. ♦ Bosnar, D. ♦ Smith, A.g. ♦ Dressler, R. ♦ Billowes, J. ♦ Finocchiaro, P. ♦ Gawlik, A. ♦ Variale, V. ♦ Tassan-Got, L. ♦ Göbel, K. ♦ Griesmayer, E. ♦ Chen, Y.h. ♦ Masi, A. ♦ Quesada, J.m. ♦ Balibrea, J. ♦ Sosnin, N.v. ♦ Praena, J. ♦ Tarifeño-Saldivia, A. ♦ Kurtulgil, D. ♦ Leal-Cidoncha, E. ♦ Andrzejewski, J. ♦ Gonçalves, I.f. ♦ Schumann, D. ♦ Guerrero, C. ♦ González, E. ♦ Stamatopoulos, A. ♦ Massimi, C. ♦ Casanovas, A. ♦ Rubbia, C. ♦ Mazzone, A. ♦ Gilardoni, S. ♦ Bečvář, F. ♦ Kadi, Y. ♦ Leeb, H. ♦ Heinitz, S. ♦ Cosentino, L. ♦ Glodariu, T. ♦ Krtička, M. ♦ Barbagallo, M. ♦ Nolte, R. ♦ Damone, L.a. ♦ Caamaño, M. ♦ Rauscher, T. ♦ Kokkoris, M. ♦ Calviño, F. ♦ Sabaté-Gilarte, M. ♦ Musumarra, A. ♦ Kimura, A. ♦ Maugeri, E.a. ♦ Cerutti, F. ♦ Chiaveri, E. ♦ Audouin, L. ♦ Lonsdale, S.j.
Source Directory of Open Access Journals (DOAJ)
Content type Text
Publisher EDP Sciences
File Format PDF
Date Created 2017-09-19
Copyright Year ©2017
Language English
Subject Domain (in LCC) QC1-999
Subject Keyword Science ♦ Physics
Abstract The CERN n_TOF neutron beam facility is characterized by a very high instantaneous neutron flux, excellent TOF resolution at the 185 m long flight path (EAR-1), low intrinsic background and coverage of a wide range of neutron energies, from thermal to a few GeV. These characteristics provide a unique possibility to perform high-accuracy measurements of neutron-induced reaction cross-sections and angular distributions of interest for fundamental and applied Nuclear Physics. Since 2001, the n_TOF Collaboration has collected a wealth of high quality nuclear data relevant for nuclear astrophysics, nuclear reactor technology, nuclear medicine, etc. The overall efficiency of the experimental program and the range of possible measurements has been expanded with the construction of a second experimental area (EAR-2), located 20 m on the vertical of the n_TOF spallation target. This upgrade, which benefits from a neutron flux 30 times higher than in EAR-1, provides a substantial extension in measurement capabilities, opening the possibility to collect data on neutron cross-section of isotopes with short half-lives or available in very small amounts. This contribution will outline the main characteristics of the n_TOF facility, with special emphasis on the new experimental area. In particular, we will discuss the innovative features of the EAR-2 neutron beam that make possible to perform very challenging measurements on short-lived radioisotopes or sub-mg samples, out of reach up to now at other neutron facilities around the world. Finally, the future perspectives of the facility will be presented.
ISSN 2100014X
Age Range 18 to 22 years ♦ above 22 year
Educational Use Research
Education Level UG and PG ♦ Career/Technical Study
Learning Resource Type Article
Publisher Date 2017-01-01
e-ISSN 2100014X
Journal EPJ Web of Conferences
Volume Number 146
Starting Page 03001

Source: Directory of Open Access Journals (DOAJ)