Measurement of the charged-current electron (anti-)neutrino inclusive cross-sections at the T2K off-axis near detector ND280

Abe, K.; Akhlaq, N.; Akutsu, R.; Ali, Ahmed Farag; Alt, C.; Andreopoulos, C.; Anthony, L. H. V.; Antonova, M.; Aoki, Shigeki; Ariga, A.; Arihara, T.; Asada, Y.; Ashida, Yosuke; Atkin, E. T.; Awataguchi, Y.; Ban, S.; Barbi, M.; Barker, G. J.; Barr, G.; Barrow, D.; Barry, C.; Batkiewicz-Kwasniak, M.; Beloshapkin, A.; Bench, F.; Berardi, V.; Berns, L.; Bhadra, S.; Bienstock, S.; Blondel, A.; Bolognesi, S.; Bonus, T.; Bourguille, B.; Boyd, S. B.; Brailsford, D.; Bravar, A.; Bravo-Berguño, D.; Bronner, C.; Bron, S.; Bubak, A.; Avanzini, M. Buizza; Calcutt, J.; Campbell, T.; Cao, S.; Cartwright, S. L.; Catanesi, M. G.; Cervera, A.; Chappell, A.; Checchia, C.; Cherdack, D.; Chikuma, N.; Christodoulou, G.; Cicerchia, M.; Coleman, J. P.; Collazuol, G.; Cook, L.; Coplowe, D.; Cudd, A.; Dąbrowska, A.; Rosa, G. De; Dealtry, T.; Denner, P. F.; Dennis, S. R.; Densham, C.; Lodovico, F. Di; Dokania, N.; Dolan, S.; Doyle, Tony; Drapier, O.; Dumarchez, J.; Dunne, P.; Eguchi, Akihiro; Eklund, L.; Emery-Schrenk, S.; Ereditato, A.; Fernández, P.; Feusels, T.; Finch, A. J.; Fiorentini, G. A.; Fiorillo, G.; François, C.; Friend, M.; Fujii, Y.; Fujita, Ryuichi; Fukuda, Daisuke; Fukuda, R.; Fukuda, Y.; Fusshoeller, K.; Giganti, C.; Golan, T.; Gonin, M.; Gorin, A.; Guigue, M.; Hadley, D. R.; Haigh, J. T.; Hamacher-Baumann, P.; Hartz, M.; Hasegawa, T.; Hassani, S.; Hastings, N. C.; Hayashino, T.; Hayato, Y.; Hiramoto, A.; Hogan, M.; Holeczek, J.; Van, N. T. Hong; Honjo, Takashi; Iacob, F.; Ichikawa, A. K.; Ikeda, M.; Ishida, Toru; Ishii, T.; Ishitsuka, M.; Iwamoto, K.; Izmaylov, A.; Izumi, N.; Jakkapu, M.; Jamieson, B.; Jenkins, S. J.; Jesús-Valls, C.; Jiang, M.; Johnson, S.; Jönsson, P.; Jung, C. K.; Junjie, X.; Jurj, P. B.; Kabirnezhad, M.; Kaboth, A.; Kajita, T.; Kakuno, H.; Kameda, J.; Karlen, D.; Kasetti, S. P.; Kataoka, Y.; Katayama, Yasuhisa; Katori, T.; Kato, Y.; Kearns, E.; Khabibullin, M.; Khotjantsev, A.; Kikawa, T.; Kikutani, H.; Kim, H.; King, S.; Kisiel, J.; Knight, A.; Knox, A.; Kobata, T.; Kobayashi, T.; Koch, L.; Koga, T.; Konaka, A.; Kormos, L. L.; Koshio, Y.; Kostin, A.; Kowalik, K.; Kubo, H.; Kudenko, Y.; Kukita, N.; Kuribayashi, S.; Kurjata, R.; Kutter, T.; Kuze, M.; Labarga, L.; Łagoda, J.; Lamoureux, Mathieu; Laveder, M.; Lawe, M.; Licciardi, M.; Lindner, T.; Litchfield, R. P.; Liu, S. L.; Li, X.; Longhin, A.; Ludovici, L.; Lu, X.-G.; Lux, T.; Machado, L. N.; Magaletti, L.; Mahn, Kendall; Malek, M.; Manly, S.; Maret, L.; Marino, A. D.; Marti-Magro, L.; Martin, J. F.; Maruyama, T.; Matsubara, T.; Matsushita, K.; Matveev, V.; Mauger, C.; Mavrokoridis, K.; Mazzucato, E.; McCarthy, M.; McCauley, N.; McElwee, J.; McFarland, K. S.; McGrew, C.; Mefodiev, A.; Metelko, C.; Mezzetto, M.; Minamino, A.; Mineev, O.; Mine, S.; Miura, Makoto; Molina-Bueno, L.; Moriyama, S.; Morrison, John H.; Mueller, T.; Munteanu, L.; Murphy, S.; Nagai, Y.; Nakadaira, T.; Nakahata, M.; Nakajima, Yasuhiro; Nakamura, Akihiko; Nakamura, K.; Nakamura, K.; Nakano, Y.; Nakayama, S.; Nakaya, T.; Nakayoshi, K.; Nantais, C.; Naseby, C. E. R.; Ngoc, Tran Van; Niewczas, K.; Nishikawa, K.; Nishimura, Y.; Noah, E.; Nonnenmacher, T. S.; Nova, F.; Novella, P.; Nowak, J.; Nugent, J. C.; O’Keeffe, H. M.; O’Sullivan, L.; Odagawa, T.; Ogawa, T.; Okada, Ryutaro; Okumura, K.; Okusawa, T.; Oser, S. M.; Owen, R. A.; Oyama, Y.; Palladino, V.; Palomino, J. L.; Paolone, V.; Pari, M.; Parker, William C.; Parsa, S.; Pasternak, J.; Paudyal, P.; Pavin, M.; Payne, D. J.; Penn, G. C.; Pickering, L.; Pidcott, C.; Pintaudi, G.; Guerra, E. S. Pinzon; Pistillo, C.; Popov, Б.; Porwit, K.; Posiadała-Zezula, M.; Pritchard, A.; Quilain, B.; Radermacher, T.; Radicioni, E.; Radics, B.; Ratoff, P. N.; Reinherz‐Aronis, E.; Riccio, C.; Rondio, E.; Roth, Stefan; Rubbia, A.; Ruggeri, A. C.; Ruggles, C. A.; Rychter, A.; Sakashita, K.; Sánchez, F.; Santucci, G.; Schloesser, C. M.; Scholberg, K.; Schwehr, J.; Scott, M.; Seiya, Y.; Sekiguchi, T.; Sekiya, H.; Sgalaberna, D.; Shah, R.; Shaikhiev, A.; Shaker, F.; Shaykina, A.; Shiozawa, M.; Shorrock, William I.; Shvartsman, A.; Smirnov, A. Yu.; Smy, M. B.; Sobczyk, J. T.; Sobel, H. W.; Soler, F. J. P.; Sonoda, Y.; Steinmann, J.; Suvorov, S.; Suzuki, A.; Suzuki, S.; Suzuki, Yoshihiro; Sztuc, A. A.; Tada, M.; Tajima, M.; Takeda, Atsushi; Takeuchi, Y.; Tanaka, Hiroyuki; Tanaka, Hirohisa; Tanaka, Satoshi; Tanihara, Y.; Tani, Masahiko; Teshima, N.; Thompson, L. F.; Toki, W. H.; Touramanis, C.; Towstego, T.; Tsui, K. M.; Tsukamoto, T.; Tzanov, M.; Uchida, Y.; Vagins, M. R.; Valder, S.; Vallari, Z.; Vargas, D.; Vasseur, G.; Vilela, C.; Vinning, W. G. S.; Vladisavljevic, T.; Volkov, Vadim; Wąchała, T.; Walker, John M.; Walsh, J.; Wang, Y.; Wark, D.; Wascko, M. O.; Weber, A.; Wendell, R.; Wilking, M. J.; Wilkinson, C.; Wilson, J. R.; Wilson, R. J.; Wood, K.; Wret, C.; Yamada, Y.; Yamamoto, K.; Yanagisawa, C.; Yang, G.; Yano, T.; Yasutome, K.; Yen, S.; Yershov, N.; Yokoyama, M.; Yoshida, Tadashi; Yu, M.; Zalewska, A.; Zalipska, J.; Заремба, К.; Zarnecki, George; Ziembicki, M.; Zimmerman, E. D.; Zito, M.; Zsoldos, S.; Zykova, A.

doi:10.1007/jhep10(2020)114

Cited by 22 publications

(8 citation statements)

References 42 publications

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“…With increase of both branches approach the non-resonance curve (36) everywhere apart from the region around 1:…”

Section: Properties Of Resonance and Total Potentialmentioning

confidence: 94%

Resonance refraction and neutrino oscillations

Smirnov,

Valera

2021

Preprint

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The refraction index and matter potential depend on neutrino energy and this dependence has a resonance character associated to the production of the mediator in the s−channel. For light mediators and light particles of medium (background) the resonance can be realized at energies accessible to laboratory experiments. We study properties of the energy dependence of the potential for different C-asymmetries of background. Interplay of the background potential and the vacuum term leads to (i) bump in the oscillation probability in the resonance region, (ii) dip related to the MSW resonance in the background, (iii) substantial deviation of the effective ∆m 2 above the resonance from the low energy value, etc. We considered generation of mixing in the background. Interactions with background shifts the energy of usual MSW resonance and produces new MSW resonances. Searches of the background effects allow us to put bounds on new interactions of neutrinos and properties of the background.We show that explanation of the MiniBooNE excess, as the bump due to resonance refraction, is excluded.

show abstract

“…With increase of both branches approach the non-resonance curve (36) everywhere apart from the region around 1:…”

Section: Properties Of Resonance and Total Potentialmentioning

confidence: 94%

Resonance refraction and neutrino oscillations

Smirnov,

Valera

2021

Preprint

View full text Add to dashboard Cite

show abstract

“…In turn, neutrino oscillations measurements mostly rely on ν µ → ν e and ν µ → ν e transitions. The ν e total cross section is measured at >20% level [58][59][60][61][62] and no measurements are available on ν e . As a consequence, the measurement of the oscillation probabilities only relies on lepton universality and takes σ ν e (E) = σ ν µ (E) and σν e (E) = σν µ (E) for granted except for radiative corrections arising from the electron and muon mass difference.…”

Section: Biases In the Determination Of Oscillation Parametersmentioning

confidence: 99%

A New Generation of Neutrino Cross Section Experiments: Challenges and Opportunities

et al. 2021

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Our knowledge of neutrino cross sections at the GeV scale, instrumental to test CP symmetry violation in the leptonic sector, has grown substantially in the last two decades. Still, their precision and understanding are far from the standard needed in contemporary neutrino physics. Nowadays, the knowledge of the neutrino cross section at O(10%) causes the main systematic uncertainty in oscillation experiments and jeopardizes their physics reach. In this paper, we envision the opportunities for a new generation of cross section experiments to be run in parallel with DUNE and HyperKamiokande. We identify the most prominent physics goals by looking at the theory and experimental limitations of the previous generation of experiments. We highlight the priorities in the theoretical understanding of GeV cross sections and the experimental challenges of this new generation of facilities.

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“…Here the background effect can be neglected. The T2K experiment [36,37] measures ∆m 2 32 at (0.3 − 1.3) GeV which is slightly above the resonance. At higher energies (essentially in asymptotics) the data are given by NOvA [38] and then MINOS and MINOS+ [39].…”

Section: Jhep09(2021)177mentioning

confidence: 99%

Resonance refraction and neutrino oscillations

Smirnov

Valera

2021

J. High Energ. Phys.

View full text Add to dashboard Cite

The refraction index and matter potential depend on neutrino energy and this dependence has a resonance character associated to the production of the mediator in the s−channel. For light mediators and light particles of medium (background) the resonance can be realized at energies accessible to laboratory experiments. We study properties of the energy dependence of the potential for different C-asymmetries of background. Interplay of the background potential and the vacuum term leads to (i) bump in the oscillation probability in the resonance region, (ii) dip related to the MSW resonance in the background, (iii) substantial deviation of the effective ∆m2 above the resonance from the low energy value, etc. We considered generation of mixing in the background. Interactions with background shifts the energy of usual MSW resonance and produces new MSW resonances. Searches of the background effects allow us to put bounds on new interactions of neutrinos and properties of the background. We show that explanation of the MiniBooNE excess, as the bump due to resonance refraction, is excluded.

show abstract

Measurement of the charged-current electron (anti-)neutrino inclusive cross-sections at the T2K off-axis near detector ND280

Cited by 22 publications

References 42 publications

Resonance refraction and neutrino oscillations

Resonance refraction and neutrino oscillations

A New Generation of Neutrino Cross Section Experiments: Challenges and Opportunities

Resonance refraction and neutrino oscillations

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