Astrophysical neutrinos in the EeV range (particularly those generated
by the interaction of
cosmic rays with the cosmic microwave background) promise to be a
valuable tool to study astrophysics
and particle physics at the highest energies. Much could be learned
from temporal, spectral, and angular
distributions of 100 events, which could be collected by a detector
with 100 km3 effective volume
in a few years. Scaling the optical Cherenkov technique to this scale
is prohibitive. However, using the
thick ice sheet available at the South Pole, the radio and acoustic
techniques promise to provide sufficient
sensitivity with sparse instrumentation. The best strategy may be
a hybrid approach combining all three
techniques. A new array of acoustic transmitters and sensors, the
South Pole Acoustic Test Setup, was
installed in three IceCube holes in January 2007. The purpose of SPATS
is to measure the attenuation
length, background noise, and sound speed for 10-100 kHz acoustic
waves. Favorable results would pave
the way for a large hybrid array. SPATS is the first array to study
the possibility of acoustic neutrino
detection in ice, the medium expected to be best for the purpose.
First results from SPATS are presented.
%0 Generic
%1 Boser2007
%A Boeser, S.
%A Bohm, C.
%A Descamps, F.
%A Fischer, J.
%A Hallgren, A.
%A Heller, R.
%A Hundertmark, S.
%A Krieger, K.
%A Nahnhauer, R.
%A Pohl, M.
%A Price, P. B.
%A Sulanke, K.-H.
%A Tosi, D.
%A Vandenbroucke, J.
%D 2007
%J arXiv
%K DESY acoustic, high-energy, icecube, neutrino, pole, south spats,
%T Feasibility of acoustic neutrino detection in ice: First results
from the South Pole Acoustic Test Setup (SPATS)
%U http://arxiv.org/PS_cache/arxiv/pdf/0708/0708.2089v1.pdf
%X Astrophysical neutrinos in the EeV range (particularly those generated
by the interaction of
cosmic rays with the cosmic microwave background) promise to be a
valuable tool to study astrophysics
and particle physics at the highest energies. Much could be learned
from temporal, spectral, and angular
distributions of 100 events, which could be collected by a detector
with 100 km3 effective volume
in a few years. Scaling the optical Cherenkov technique to this scale
is prohibitive. However, using the
thick ice sheet available at the South Pole, the radio and acoustic
techniques promise to provide sufficient
sensitivity with sparse instrumentation. The best strategy may be
a hybrid approach combining all three
techniques. A new array of acoustic transmitters and sensors, the
South Pole Acoustic Test Setup, was
installed in three IceCube holes in January 2007. The purpose of SPATS
is to measure the attenuation
length, background noise, and sound speed for 10-100 kHz acoustic
waves. Favorable results would pave
the way for a large hybrid array. SPATS is the first array to study
the possibility of acoustic neutrino
detection in ice, the medium expected to be best for the purpose.
First results from SPATS are presented.
@electronic{Boser2007,
abstract = {Astrophysical neutrinos in the EeV range (particularly those generated
by the interaction of
cosmic rays with the cosmic microwave background) promise to be a
valuable tool to study astrophysics
and particle physics at the highest energies. Much could be learned
from temporal, spectral, and angular
distributions of 100 events, which could be collected by a detector
with 100 km3 effective volume
in a few years. Scaling the optical Cherenkov technique to this scale
is prohibitive. However, using the
thick ice sheet available at the South Pole, the radio and acoustic
techniques promise to provide sufficient
sensitivity with sparse instrumentation. The best strategy may be
a hybrid approach combining all three
techniques. A new array of acoustic transmitters and sensors, the
South Pole Acoustic Test Setup, was
installed in three IceCube holes in January 2007. The purpose of SPATS
is to measure the attenuation
length, background noise, and sound speed for 10-100 kHz acoustic
waves. Favorable results would pave
the way for a large hybrid array. SPATS is the first array to study
the possibility of acoustic neutrino
detection in ice, the medium expected to be best for the purpose.
First results from SPATS are presented.},
added-at = {2009-03-11T17:29:05.000+0100},
archiveprefix = {arXiv},
author = {Boeser, S. and Bohm, C. and Descamps, F. and Fischer, J. and Hallgren, A. and Heller, R. and Hundertmark, S. and Krieger, K. and Nahnhauer, R. and Pohl, M. and Price, P. B. and Sulanke, K.-H. and Tosi, D. and Vandenbroucke, J.},
biburl = {https://www.bibsonomy.org/bibtex/2db5817a8a2dc36fc44739f52aea5ab6d/jfischer},
eprint = {0708.2089},
interhash = {aa1180178fe085abc931f853d59f2532},
intrahash = {db5817a8a2dc36fc44739f52aea5ab6d},
journal = {arXiv},
keywords = {DESY acoustic, high-energy, icecube, neutrino, pole, south spats,},
primaryclass = {astro-ph},
slaccitation = {%%CITATION = 0708.2089;%%},
timestamp = {2009-03-11T17:31:24.000+0100},
title = {Feasibility of acoustic neutrino detection in ice: First results
from the South Pole Acoustic Test Setup (SPATS)},
url = {http://arxiv.org/PS_cache/arxiv/pdf/0708/0708.2089v1.pdf},
year = 2007
}