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The Hyper-Kamiokande Experiment -- Snowmass LOI

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arxiv 2009.00794 v1 pith:GWQT7RZJ submitted 2020-09-02 physics.ins-det hep-ex

The Hyper-Kamiokande Experiment -- Snowmass LOI

Hyper-Kamiokande Collaboration: K. Abe , P. Adrich , H. Aihara , R. Akutsu , I. Alekseev , A. Ali , F. Ameli , L.H.V. Anthony
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A. Araya Y. Asaoka V. Aushev I. Bandac M. Barbi G. Barr M. Batkiewicz-Kwasniak M. Bellato V. Berardi L. Bernard E. Bernardini L. Berns S. Bhadra J. Bian A. Blanchet A. Blondel A. Boiano S. Bolognesi L. Bonavera S. Borjabad T. Boschi D. Bose S .B. Boyd C. Bozza A. Bravar C. Bronner A. Bubak A. Buchowicz M. Buizza Avanzini F. S. Cafagna N. F. Calabria J. M. Calvo-Mozota S. Cao M. G. Catanesi S. Chakraborty J. H. Choi S. Choubey M. Cicerchia J. Coleman G. Collazuol S. Cuen-Rochin M. Danilov E. De la Fuente P. de Perio G. De Rosa T. Dealtry C. J. Densham A. Dergacheva N. Deshmukh M. M. Devi F. Di Lodovico P. Di Meo I. Di Palma T. A. Doyle E. Drakopoulou O. Drapier J. Dumarchez L. Eklund S. El Hedri J. Ellis S. Emery A. Esmaili S. Fedotov J. Feng E. Fern\'andez-Martinez P. Ferrario B. Ferrazzi A. Finch C. Finley G. Fiorillo M. Fitton M. Friend Y. Fujii Y. Fukuda G. Galinski J. Gao C. Garde A. Garfagnini S. Garode L. Gialanella C. Giganti J. J. Gomez-Cadenas M. Gonin J. Gonz\'alez-Nuevo A. Gorin R. Gornea F. Gramegna M. Grassi G. Grella M. Guigue D. R. Hadley M. Harada M. Hartz S. Hassani N. C. Hastings Y. Hayato K. Hiraide K. Hoshina K. Hultqvist F. Iacob A. K. Ichikawa W. Idrissi Ibnsalih M. Ikeda M. Inomoto A. Ioannisian T. Ishida K. Ishidoshiro H. Ishino M. Ishitsuka H. Ito S. Ito Y. Itow K. Iwamoto N. Izumi S. Izumiyama M. Jakkapu B. Jamieson J. S. Jang H. S. Jo P. Jonsson K. K. Joo T. Kajita H. Kakuno J. Kameda Y. Kano D. Karlen Y. Kataoka A. Kato T. Katori N. Kazarian M. Khabibullin A. Khotjantsev T. Kikawa J. Y. Kim S. B. Kim S. King T. Kinoshita J. Kisiel A. Klekotko T. Kobayashi L. Koerich N. Kolev A. Konaka L. L. Kormos Y. Koshio Y. Kotsar K. A. Kouzakov K.L. Kowalik L. Kravchuk A. P. Kryukov Y. Kudenko T. Kumita R. Kurjata T. Kutter M. Kuze K. Kwak M. La Commara L. Labarga J. Lagoda M. Lamoureux M. Laveder L. Lavitola J. Lee R. Leitner V. Lezaun I. T. Lim T. Lindner R. P. Litchfield K. R. Long A. Longhin P. Loverre X. Lu L. Ludovici Y. Maekawa L. Magaletti K. Magar Y. Makida M. Malek M. Malinsk\'y T. Marchi C. Mariani A. Marinelli K. Martens Ll. Marti J. F. Martin D. Martin J. Marzec T. Matsubara R. Matsumoto N. McCauley A. Medhi P. Mehta L. Mellet H. Menjo M. Mezzetto J. Migenda P. Migliozzi S. Miki A. Minamino S. Mine O. Mineev A. Mitra M. Miura R. Moharana C. M. Mollo T. Mondal M. Mongelli F. Monrabal D. H. Moon C. S. Moon S. Moriyama T. Mueller Y. Nagao T. Nakadaira K. Nakagiri M. Nakahata S. Nakai Y. Nakajima K. Nakamura KI. Nakamura H. Nakamura Y. Nakano T. Nakaya S. Nakayama K. Nakayoshi L. Nascimento Machado C. E. R. Naseby B. Navarro-Garcia M. Needham K. Niewczas Y. Nishimura F. Nova J. C. Nugent H. Nunokawa W. Obrebski J. P. Ochoa-Ricoux E. O'Connor N. Ogawa T. Ogitsu K. Okamoto H. M. O'Keeffe K. Okumura Y. Onishchuk F. Orozco-Luna A. Oshlianskyi N. Ospina M. Ostrowski E. O'Sullivan Y. Oyama H. Ozaki M.Y. Pac P. Paganini V. Palladino M. Pari J. Pasternak C. Pastore G. Pastuszak D. A. Patel M. Pavin D. Payne C. Pe\~na-Garay C. Pidcott S. Playfer B. W. Pointon A. Popov B. Popov K. Porwit M. Posiadala-Zezula G. Pronost N.W. Prouse B. Quilain A. A. Quiroga E. Radicioni B. Radics P. J. Rajda M. Rescigno G. Ricciardi B. Richards E. Rondio B. Roskovec S. Roth C. Rott A. Rubbia A.C. Ruggeri S. Russo A. Rychter D. Ryu K. Sakashita S. Samani F. S\'anchez M. L. S\'anchez S. Sano J. D. Santos G. Santucci P. Sarmah K. Sato M. Scott Y. Seiya T. Sekiguchi H. Sekiya J. W. Seo D. Sgalaberna A. Shaykina I. Shimizu C. D. Shin M. Shinoki M. Shiozawa N.Skrobova K. Skwarczynski M.B. Smy J. Sobczyk H. W. Sobel F. J. P. Soler Y. Sonoda R. Spina B. Spisso P. Spradlin K. L. Stankevich L. Stawarz S. M. Stellacci A. I. Studenikin S. L. Su\'arez G\'omez T. Suganuma S. Suvorov Y. Suwa A. T. Suzuki S. Suzuki Y. Suzuki D. Svirida M. Taani M. Tada A. Takeda Y. Takemoto A. Takenaka A. Taketa Y. Takeuchi H. Tanaka H. I. Tanaka M. Tanaka T. Tashiro M. Thiesse L. F. Thompson A. K. Tomatani-S\'anchez G. Tortone K. M. Tsui T. Tsukamoto M. Tzanov Y. Uchida M. R. Vagins S. Valder V. Valentino G. Vasseur A. Vijayvargi W. G. S. Vinning D. Vivolo R. B. Vogelaar M. M. Vyalkov T. Wachala J. Walker D. Wark M. O. Wascko R. A. Wendell J. R. Wilson S. Wronka J. Xia Y. Yamaguchi K. Yamamoto T. Yano N. Yershov M. Yokoyama J. Yoo I. Yu T. Zakrzewski B. Zaldivar J. Zalipska K. Zaremba G. Zarnecki M. Ziembicki K. Zietara M. Zito S. Zsoldos
This is my paper
classification physics.ins-det hep-ex
keywords hyper-kamiokandedetectorexperimentneutrinoprogrambeamexpectedhighly
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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Hyper-Kamiokande is the next generation underground water Cherenkov detector that builds on the highly successful Super-Kamiokande experiment. The detector which has an 8.4~times larger effective volume than its predecessor will be located along the T2K neutrino beamline and utilize an upgraded J-PARC beam with 2.6~times beam power. Hyper-K's low energy threshold combined with the very large fiducial volume make the detector unique, that is expected to acquire an unprecedented exposure of 3.8~Mton$\cdot$year over a period of 20~years of operation. Hyper-Kamiokande combines an extremely diverse science program including nucleon decays, long-baseline neutrino oscillations, atmospheric neutrinos, and neutrinos from astrophysical origins. The scientific scope of this program is highly complementary to liquid-argon detectors for example in sensitivity to nucleon decay channels or supernova detection modes. Hyper-Kamiokande construction has started in early 2020 and the experiment is expected to start operations in 2027. The Hyper-Kamiokande collaboration is presently being formed amongst groups from 19 countries including the United States, whose community has a long history of making significant contributions to the neutrino physics program in Japan. US physicists have played leading roles in the Kamiokande, Super-Kamiokande, EGADS, K2K, and T2K programs.

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