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  • Determining the neutrino ma...
    Esfahani, Ali Ashtari; Asner, David M; Böser, Sebastian; Cervantes, Raphael; Claessens, Christine; de Viveiros, Luiz; Doe, Peter J; Doeleman, Shepard; Fernandes, Justin L; Fertl, Martin; Finn, Erin C; Formaggio, Joseph A; Furse, Daniel; Guigue, Mathieu; Heeger, Karsten M; Jones, A Mark; Kazkaz, Kareem; Kofron, Jared A; Lamb, Callum; LaRoque, Benjamin H; Machado, Eric; McBride, Elizabeth L; Miller, Michael L; Monreal, Benjamin; Mohanmurthy, Prajwal; Nikkel, James A; Oblath, Noah S; Pettus, Walter C; Robertson, R G Hamish; Rosenberg, Leslie J; Rybka, Gray; Rysewyk, Devyn; Saldaña, Luis; Slocum, Penny L; Sternberg, Matthew G; Tedeschi, Jonathan R; Thümmler, Thomas; VanDevender, Brent A; Vertatschitsch, Laura E; Wachtendonk, Megan; Weintroub, Jonathan; Woods, Natasha L; Young, André; Zayas, Evan M

    Journal of physics. G, Nuclear and particle physics, 03/2017, Letnik: 44, Številka: 5
    Journal Article

    The most sensitive direct method to establish the absolute neutrino mass is observation of the endpoint of the tritium beta-decay spectrum. Cyclotron radiation emission spectroscopy (CRES) is a precision spectrographic technique that can probe much of the unexplored neutrino mass range with  ( eV ) resolution. A lower bound of m ( e ) 9 ( 0.1 ) meV is set by observations of neutrino oscillations, while the KATRIN experiment-the current-generation tritium beta-decay experiment that is based on magnetic adiabatic collimation with an electrostatic (MAC-E) filter-will achieve a sensitivity of m ( e ) 0.2 eV . The CRES technique aims to avoid the difficulties in scaling up a MAC-E filter-based experiment to achieve a lower mass sensitivity. In this paper we review the current status of the CRES technique and describe Project 8, a phased absolute neutrino mass experiment that has the potential to reach sensitivities down to m ( e ) 40 meV using an atomic tritium source.