Summary: Acoustic Detection of EHE Neutrinos

Neutrino astronomy was initiated primarily to search for TeV to PeV neutrinos from Active Galactic Nuclei, and the optical Cherenkov technique is well suited for this energy range. Interest has grown recently in detecting EeV neutrinos, particularly the ``cosmogenic'' neutrinos produced du...

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Main Author: Vandenbroucke, J
Language:English
Published: 2006
Subjects:
Online Access:http://cds.cern.ch/record/1003837
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spelling ftcern:oai:cds.cern.ch:1003837 2023-05-15T13:31:22+02:00 Summary: Acoustic Detection of EHE Neutrinos Vandenbroucke, J 2006-11-15 http://cds.cern.ch/record/1003837 eng eng http://cds.cern.ch/record/1003837 astro-ph/0611503 oai:cds.cern.ch:1003837 Astrophysics and Astronomy 2006 ftcern 2018-07-28T08:39:55Z Neutrino astronomy was initiated primarily to search for TeV to PeV neutrinos from Active Galactic Nuclei, and the optical Cherenkov technique is well suited for this energy range. Interest has grown recently in detecting EeV neutrinos, particularly the ``cosmogenic'' neutrinos produced during propagation of ultra-high-energy cosmic rays (UHECR) through the microwave background radiation. These neutrinos could be a powerful tool both to resolve the mystery of the UHECR sources and to test fundamental physics at the $\sim$100 TeV scale. The optical technique is not cost effective at these energies and newer techniques such as radio and acoustic detection are necessary. Accelerator experiments have confirmed the production of both types of signals from high-energy showers in various media, and quantitative measurements have confirmed theoretical descriptions of the signal strength, frequency content and pulse shape. While radio experiments have set the strongest limits so far, the acoustic method could contribute with an entirely independent signal production and detection mechanism and may be more effective at the highest energies. Efforts are underway to develop the acoustic method in various media around the world, with arrays operating in ocean water at the Bahamas, the UK, and the Mediterranean Sea; detectors prepared for deployment in the South Pole ice in the next year; and ideas for future acoustic detectors in salt domes and on Antarctica's Ross Ice Shelf. Regardless of which method is individually most sensitive, the best configuration may be to co-deploy arrays to combine the techniques and seek coincident detection of individual neutrino events. Other/Unknown Material Antarc* Ice Shelf Ross Ice Shelf South pole South pole CERN Document Server (CDS) Ross Ice Shelf South Pole
institution Open Polar
collection CERN Document Server (CDS)
op_collection_id ftcern
language English
topic Astrophysics and Astronomy
spellingShingle Astrophysics and Astronomy
Vandenbroucke, J
Summary: Acoustic Detection of EHE Neutrinos
topic_facet Astrophysics and Astronomy
description Neutrino astronomy was initiated primarily to search for TeV to PeV neutrinos from Active Galactic Nuclei, and the optical Cherenkov technique is well suited for this energy range. Interest has grown recently in detecting EeV neutrinos, particularly the ``cosmogenic'' neutrinos produced during propagation of ultra-high-energy cosmic rays (UHECR) through the microwave background radiation. These neutrinos could be a powerful tool both to resolve the mystery of the UHECR sources and to test fundamental physics at the $\sim$100 TeV scale. The optical technique is not cost effective at these energies and newer techniques such as radio and acoustic detection are necessary. Accelerator experiments have confirmed the production of both types of signals from high-energy showers in various media, and quantitative measurements have confirmed theoretical descriptions of the signal strength, frequency content and pulse shape. While radio experiments have set the strongest limits so far, the acoustic method could contribute with an entirely independent signal production and detection mechanism and may be more effective at the highest energies. Efforts are underway to develop the acoustic method in various media around the world, with arrays operating in ocean water at the Bahamas, the UK, and the Mediterranean Sea; detectors prepared for deployment in the South Pole ice in the next year; and ideas for future acoustic detectors in salt domes and on Antarctica's Ross Ice Shelf. Regardless of which method is individually most sensitive, the best configuration may be to co-deploy arrays to combine the techniques and seek coincident detection of individual neutrino events.
author Vandenbroucke, J
author_facet Vandenbroucke, J
author_sort Vandenbroucke, J
title Summary: Acoustic Detection of EHE Neutrinos
title_short Summary: Acoustic Detection of EHE Neutrinos
title_full Summary: Acoustic Detection of EHE Neutrinos
title_fullStr Summary: Acoustic Detection of EHE Neutrinos
title_full_unstemmed Summary: Acoustic Detection of EHE Neutrinos
title_sort summary: acoustic detection of ehe neutrinos
publishDate 2006
url http://cds.cern.ch/record/1003837
geographic Ross Ice Shelf
South Pole
geographic_facet Ross Ice Shelf
South Pole
genre Antarc*
Ice Shelf
Ross Ice Shelf
South pole
South pole
genre_facet Antarc*
Ice Shelf
Ross Ice Shelf
South pole
South pole
op_relation http://cds.cern.ch/record/1003837
astro-ph/0611503
oai:cds.cern.ch:1003837
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