학술논문

KATRIN: Status and Prospects for the Neutrino Mass and Beyond
Document Type
Working Paper
Author
Aker, M.Balzer, M.Batzler, D.Beglarian, A.Behrens, J.Berlev, A.Besserer, U.Biassoni, M.Bieringer, B.Block, F.Bobien, S.Bombelli, L.Bormann, D.Bornschein, B.Bornschein, L.Böttcher, M.Brofferio, C.Bruch, C.Brunst, T.Caldwell, T. S.Carminati, M.Carney, R. M. D.Chilingaryan, S.Choi, W.Cremonesi, O.Debowski, K.Descher, M.Barrero, D. DíazDoe, P. J.Dragoun, O.Drexlin, G.Edzards, F.Eitel, K.Ellinger, E.Engel, R.Enomoto, S.Felden, A.Fink, D.Fiorini, C.Formaggio, J. A.Forstner, C.Fränkle, F. M.Franklin, G. B.Friedel, F.Fulst, A.Gauda, K.Gavin, A. S.Gil, W.Glück, F.Grande, A.Grössle, R.Gugiatti, M.Gumbsheimer, R.Hannen, V.Hartmann, J.Haußmann, N.Helbing, K.Hickford, S.Hiller, R.Hillesheimer, D.Hinz, D.Höhn, T.Houdy, T.Huber, A.Jansen, A.Karl, C.Kellerer, J.King, P.Kleifges, M.Klein, M.Köhler, C.Köllenberger, L.Kopmann, A.Korzeczek, M.Kovalík, A.Krasch, B.Krause, H.Lasserre, T.La Cascio, L.Lebeda, O.Lechner, P.Lehnert, B.Le, T. L.Lokhov, A.Machatschek, M.Malcherek, E.Manfrin, D.Mark, M.Marsteller, A.Martin, E. L.Mazzola, E.Melzer, C.Mertens, S.Mostafa, J.Müller, K.Nava, A.Neumann, H.Niemes, S.Oelpmann, P.Onillon, A.Parno, D. S.Pavan, M.Pigliafreddo, A.Poon, A. W. P.Poyato, J. M. L.Pozzi, S.Priester, F.Puritscher, M.Radford, D. C.Ráliš, J.Ramachandran, S.Robertson, R. G. H.Rodejohann, W.Rodenbeck, C.Röllig, M.Röttele, C.Ryšavý, M.Sack, R.Saenz, A.Salomon, R. W. J.Schäfer, P.Schimpf, L.Schlösser, K.Schlösser, M.Schlüter, L.Schneidewind, S.Schrank, M.Schütz, A. K.Schwemmer, A.Sedlak, A.Šefčík, M.Sibille, V.Siegmann, D.Slezák, M.Spanier, F.Spreng, D.Steidl, M.Sturm, M.Telle, H. H.Thorne, L. A.Thümmler, T.Titov, N.Tkachev, I.Trigilio, P.Urban, K.Valerius, K.Vénos, D.Hernández, A. P. VizcayaVoigt, P.Weinheimer, C.Weiss, E.Welte, S.Wendel, J.Wiesinger, C.Wilkerson, J. F.Wolf, J.Wunderl, L.Wüstling, S.Wydra, J.Xu, W.Zadoroghny, S.Zeller, G.
Source
J. Phys. G: Nucl. Part. Phys. 49 (2022) 100501
Subject
Nuclear Experiment
Astrophysics - Cosmology and Nongalactic Astrophysics
High Energy Physics - Experiment
Physics - Instrumentation and Detectors
Language
Abstract
The Karlsruhe Tritium Neutrino (KATRIN) experiment is designed to measure a high-precision integral spectrum of the endpoint region of T2 beta decay, with the primary goal of probing the absolute mass scale of the neutrino. After a first tritium commissioning campaign in 2018, the experiment has been regularly running since 2019, and in its first two measurement campaigns has already achieved a sub-eV sensitivity. After 1000 days of data-taking, KATRIN's design sensitivity is 0.2 eV at the 90% confidence level. In this white paper we describe the current status of KATRIN; explore prospects for measuring the neutrino mass and other physics observables, including sterile neutrinos and other beyond-Standard-Model hypotheses; and discuss research-and-development projects that may further improve the KATRIN sensitivity.
Comment: Contribution to Snowmass 2021. 70 pages excluding references; 35 figures. Author list updated June 2023