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The COHERENT Experiment: 2026 Update

Fuente: arXiv

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Dettagli Bibliografici
Autori principali:	Adhikari, M., Ahn, M., Matamoros, D. Amaya, Barbeau, P. S., Belov, V., Bernardi, I., Bock, C., Bolozdynya, A., Bouabid, R., Browning, J., Cabrera-Palmer, B., Cedarblade-Jones, N., Chen, S., Rivera, A. I. Colón, da Silva, V., Daughhetee, J., Efremenko, Y., Elliott, S. R., Erlandson, A., Fabris, L., Fischer, M. L., Foster, S., Galindo-Uribarri, A., Vazquez, E. Granados, Green, M. P., Hackett, B., Hakenmüller, J., Harada, M., Heath, M. R., Hedges, S., Hino, Y., Huang, H., Huang, W., Jeong, H., Johnson, B. A., Johnson, T., Khromov, A., Kim, D., Kong, L., Konovalov, A., Koshio, Y., Kozlova, E., Kumpan, A., Kyzylova, O., Lee, Y., Lee, S. M., Li, G., Li, L., Li, Z., Link, J. M., Liu, J., Liu, Q., Lu, X., Luxnat, M., Markoff, D. M., Mattingly, J., McLaurin, H., McMichael, K., Meredith, N., Nakajima, Y., Nakanishi, F., Newby, J., Nolan, B., O'Reilly, J., Orvedahl, A., Parno, D. S., Pérez-Loureiro, D., Pershey, D., Prior, C. G., Queen, J., Rapp, R., Ray, H., Razuvaeva, O., Reyna, D., Rudik, D., Runge, J., Salvat, D. J., Sander, J., Scholberg, K., Sekiya, H., Seligman, J., Shakirov, A., Simakov, G., Skweres, J., Snow, W. M., Sosnovtsev, V., Stefan, Q., Stringer, M., Su, C., Subedi, T., Suh, B., Sur, B., Tayloe, R., Tsai, Y. -T., Vaccaro, J., van Nieuwenhuizen, E. E., Virtue, C. J., Visser, G., Walkup, K., Ward, E. M., Wendell, R., Wongjirad, T., Yang, C., Yang, Y., Yoo, J., Yu, C. -H., Yu, Y., Zaalishvili, A., Zettlemoyer, J., Zheng, Y.
Natura:	Preprint
Pubblicazione:	2026
Soggetti:	High Energy Physics - Experiment High Energy Physics - Phenomenology Nuclear Experiment Instrumentation and Detectors
Accesso online:	Acceder al recurso
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_version_	1866910024925708288
author	Adhikari, M. Ahn, M. Matamoros, D. Amaya Barbeau, P. S. Belov, V. Bernardi, I. Bock, C. Bolozdynya, A. Bouabid, R. Browning, J. Cabrera-Palmer, B. Cedarblade-Jones, N. Chen, S. Rivera, A. I. Colón da Silva, V. Daughhetee, J. Efremenko, Y. Elliott, S. R. Erlandson, A. Fabris, L. Fischer, M. L. Foster, S. Galindo-Uribarri, A. Vazquez, E. Granados Green, M. P. Hackett, B. Hakenmüller, J. Harada, M. Heath, M. R. Hedges, S. Hino, Y. Huang, H. Huang, W. Jeong, H. Johnson, B. A. Johnson, T. Khromov, A. Kim, D. Kong, L. Konovalov, A. Koshio, Y. Kozlova, E. Kumpan, A. Kyzylova, O. Lee, Y. Lee, S. M. Li, G. Li, L. Li, Z. Link, J. M. Liu, J. Liu, Q. Lu, X. Luxnat, M. Markoff, D. M. Mattingly, J. McLaurin, H. McMichael, K. Meredith, N. Nakajima, Y. Nakanishi, F. Newby, J. Nolan, B. O'Reilly, J. Orvedahl, A. Parno, D. S. Pérez-Loureiro, D. Pershey, D. Prior, C. G. Queen, J. Rapp, R. Ray, H. Razuvaeva, O. Reyna, D. Rudik, D. Runge, J. Salvat, D. J. Sander, J. Scholberg, K. Sekiya, H. Seligman, J. Shakirov, A. Simakov, G. Skweres, J. Snow, W. M. Sosnovtsev, V. Stefan, Q. Stringer, M. Su, C. Subedi, T. Suh, B. Sur, B. Tayloe, R. Tsai, Y. -T. Vaccaro, J. van Nieuwenhuizen, E. E. Virtue, C. J. Visser, G. Walkup, K. Ward, E. M. Wendell, R. Wongjirad, T. Yang, C. Yang, Y. Yoo, J. Yu, C. -H. Yu, Y. Zaalishvili, A. Zettlemoyer, J. Zheng, Y.
author_facet	Adhikari, M. Ahn, M. Matamoros, D. Amaya Barbeau, P. S. Belov, V. Bernardi, I. Bock, C. Bolozdynya, A. Bouabid, R. Browning, J. Cabrera-Palmer, B. Cedarblade-Jones, N. Chen, S. Rivera, A. I. Colón da Silva, V. Daughhetee, J. Efremenko, Y. Elliott, S. R. Erlandson, A. Fabris, L. Fischer, M. L. Foster, S. Galindo-Uribarri, A. Vazquez, E. Granados Green, M. P. Hackett, B. Hakenmüller, J. Harada, M. Heath, M. R. Hedges, S. Hino, Y. Huang, H. Huang, W. Jeong, H. Johnson, B. A. Johnson, T. Khromov, A. Kim, D. Kong, L. Konovalov, A. Koshio, Y. Kozlova, E. Kumpan, A. Kyzylova, O. Lee, Y. Lee, S. M. Li, G. Li, L. Li, Z. Link, J. M. Liu, J. Liu, Q. Lu, X. Luxnat, M. Markoff, D. M. Mattingly, J. McLaurin, H. McMichael, K. Meredith, N. Nakajima, Y. Nakanishi, F. Newby, J. Nolan, B. O'Reilly, J. Orvedahl, A. Parno, D. S. Pérez-Loureiro, D. Pershey, D. Prior, C. G. Queen, J. Rapp, R. Ray, H. Razuvaeva, O. Reyna, D. Rudik, D. Runge, J. Salvat, D. J. Sander, J. Scholberg, K. Sekiya, H. Seligman, J. Shakirov, A. Simakov, G. Skweres, J. Snow, W. M. Sosnovtsev, V. Stefan, Q. Stringer, M. Su, C. Subedi, T. Suh, B. Sur, B. Tayloe, R. Tsai, Y. -T. Vaccaro, J. van Nieuwenhuizen, E. E. Virtue, C. J. Visser, G. Walkup, K. Ward, E. M. Wendell, R. Wongjirad, T. Yang, C. Yang, Y. Yoo, J. Yu, C. -H. Yu, Y. Zaalishvili, A. Zettlemoyer, J. Zheng, Y.
contents	The COHERENT experiment measures neutrino-induced recoils from coherent elastic neutrino-nucleus scattering (CEvNS) with multiple nuclear targets at the Spallation Neutron Source (SNS) at the Oak Ridge National Laboratory (ORNL), USA. Several successful CEvNS measurements have been achieved in recent years with tens-of-kg detector masses, with a CsI scintillating crystal, a liquid argon single-phase detector, and high-purity germanium spectrometers. For the next phase, COHERENT aims at high-statistics detection of CEvNS events for precision tests of the standard model of particle physics, and to probe new physics beyond-the-standard model. Percent-level precision can be achieved by lowering thresholds, reducing backgrounds, and by scaling up the detector masses. It goes hand in hand with benchmarking the neutrino flux from the SNS. Further detectors will measure CEvNS in additional nuclei, including lighter target nuclei such as sodium and neon, to continue to test the expected neutron-number-squared dependence of the cross section. COHERENT can furthermore study charged-current and neutral-current inelastic neutrino-nucleus cross sections on various nuclei at neutrino energies below $\sim$50 MeV. Many of these cross sections have never been measured before, but are critical input for the interpretation of core-collapse supernova detection in large-scale neutrino experiments such as DUNE, Super-K, Hyper-K, and HALO.
format	Preprint
id	arxiv_https___arxiv_org_abs_2602_15652
institution	arXiv
publishDate	2026
record_format	arxiv
spellingShingle	The COHERENT Experiment: 2026 Update Adhikari, M. Ahn, M. Matamoros, D. Amaya Barbeau, P. S. Belov, V. Bernardi, I. Bock, C. Bolozdynya, A. Bouabid, R. Browning, J. Cabrera-Palmer, B. Cedarblade-Jones, N. Chen, S. Rivera, A. I. Colón da Silva, V. Daughhetee, J. Efremenko, Y. Elliott, S. R. Erlandson, A. Fabris, L. Fischer, M. L. Foster, S. Galindo-Uribarri, A. Vazquez, E. Granados Green, M. P. Hackett, B. Hakenmüller, J. Harada, M. Heath, M. R. Hedges, S. Hino, Y. Huang, H. Huang, W. Jeong, H. Johnson, B. A. Johnson, T. Khromov, A. Kim, D. Kong, L. Konovalov, A. Koshio, Y. Kozlova, E. Kumpan, A. Kyzylova, O. Lee, Y. Lee, S. M. Li, G. Li, L. Li, Z. Link, J. M. Liu, J. Liu, Q. Lu, X. Luxnat, M. Markoff, D. M. Mattingly, J. McLaurin, H. McMichael, K. Meredith, N. Nakajima, Y. Nakanishi, F. Newby, J. Nolan, B. O'Reilly, J. Orvedahl, A. Parno, D. S. Pérez-Loureiro, D. Pershey, D. Prior, C. G. Queen, J. Rapp, R. Ray, H. Razuvaeva, O. Reyna, D. Rudik, D. Runge, J. Salvat, D. J. Sander, J. Scholberg, K. Sekiya, H. Seligman, J. Shakirov, A. Simakov, G. Skweres, J. Snow, W. M. Sosnovtsev, V. Stefan, Q. Stringer, M. Su, C. Subedi, T. Suh, B. Sur, B. Tayloe, R. Tsai, Y. -T. Vaccaro, J. van Nieuwenhuizen, E. E. Virtue, C. J. Visser, G. Walkup, K. Ward, E. M. Wendell, R. Wongjirad, T. Yang, C. Yang, Y. Yoo, J. Yu, C. -H. Yu, Y. Zaalishvili, A. Zettlemoyer, J. Zheng, Y. High Energy Physics - Experiment High Energy Physics - Phenomenology Nuclear Experiment Instrumentation and Detectors The COHERENT experiment measures neutrino-induced recoils from coherent elastic neutrino-nucleus scattering (CEvNS) with multiple nuclear targets at the Spallation Neutron Source (SNS) at the Oak Ridge National Laboratory (ORNL), USA. Several successful CEvNS measurements have been achieved in recent years with tens-of-kg detector masses, with a CsI scintillating crystal, a liquid argon single-phase detector, and high-purity germanium spectrometers. For the next phase, COHERENT aims at high-statistics detection of CEvNS events for precision tests of the standard model of particle physics, and to probe new physics beyond-the-standard model. Percent-level precision can be achieved by lowering thresholds, reducing backgrounds, and by scaling up the detector masses. It goes hand in hand with benchmarking the neutrino flux from the SNS. Further detectors will measure CEvNS in additional nuclei, including lighter target nuclei such as sodium and neon, to continue to test the expected neutron-number-squared dependence of the cross section. COHERENT can furthermore study charged-current and neutral-current inelastic neutrino-nucleus cross sections on various nuclei at neutrino energies below $\sim$50 MeV. Many of these cross sections have never been measured before, but are critical input for the interpretation of core-collapse supernova detection in large-scale neutrino experiments such as DUNE, Super-K, Hyper-K, and HALO.
title	The COHERENT Experiment: 2026 Update
topic	High Energy Physics - Experiment High Energy Physics - Phenomenology Nuclear Experiment Instrumentation and Detectors
url	https://arxiv.org/abs/2602.15652