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ANTARES (telescope)

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52: 262:. The detection principles of the two projects are very similar, although ANTARES only points toward the Southern Hemisphere. Thanks to its location in the Mediterranean Sea, ANTARES is more sensitive to neutrinos with energies below 100 TeV in the southern sky, a region that includes many galactic sources. ANTARES will detect neutrinos from high energy origin, particularly in the range from 10 to 10 376:
organisms. Results from these instruments, while also important for the calibration of the detector, will be shared with ocean science institutes involved in the ANTARES collaboration. While the ANTARES detector contains an acoustic positioning system for the alignment of the free-floating detector
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tubes. Each one has 75 optical modules and is about 350 meters long. They are anchored at the bottom of the sea at a depth of about 2.5 km, roughly 70 meters apart from each other. When neutrinos enter the southern hemisphere of the earth, they usually continue traveling directly through it.
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were deployed in 2005. The first string of photomultiplier tubes was moved into place in February 2006. In September 2006 the second line was successfully connected. Lines 3, 4 and 5 were deployed at the end of 2006 and connected in January 2007. This was an important step that made Antares the
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from cosmic origins in the Southern Hemisphere. Of particular interest would be the detection of astrophysical point sources of neutrinos, possibly in correlation with observations in other bands (such as gamma rays sources observed by the
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emitted as the muon passes through the water. The detection techniques used discriminate between the signature of "upward-going muons", a muon neutrino that has had interactions with matter below the detector (the
381:, which will comprise 6 converted ANTARES storeys with hydrophones to evaluate the possibility for acoustic detection of neutrinos in the deep sea. The first 3 of these acoustic storeys have been included in the 224:). Lines 6, 7, 8, 9, and 10 were deployed between March and early November 2007 and connected in December 2007 and January 2008. From May 2008 the detector has been running in its complete 12-line configuration. 215:
The construction of ANTARES was completed on May 30, 2008, two years after the first string was deployed. Initial testing began in 2000. Equipment indirectly related to the detector such as a
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Adrián-MartĂ­nez, S.; et al. (2014). "Searches for point-like and extended neutrino sources close to the galactic center using the ANTARES neutrino telescope".
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profilers and instrumentation for the measurement of light transmission and sound velocity. Also, a camera system has been installed for automatic tracking of
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Apart from this astro-particle physics aspect, the ANTARES telescope may also tackle some fundamental problems in particle physics, such as the search for
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Using 6 years of data, a search of the galactic center for point sources of neutrinos found none. Atmospheric neutrino oscillations were also measured.
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telescope, which are both in early design stages. The data taking of ANTARES was finished in February 2022, after 16 years of continuous operation.
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In addition to the main optical detector for cosmic neutrinos, the ANTARES experiment also houses a number of instruments for the study of the
962: 1192: 1066: 834: 641: 870: 1107: 191:, ANTARES uses water instead of ice as its Cherenkov medium. As light in water is less scattered than in ice this results in a better 184: 1212: 1091: 1081: 799: 1303: 970: 537:
Adrián-MartĂ­nez, S.; et al. (2012). "Measurement of atmospheric neutrino oscillations with the ANTARES neutrino telescope".
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neutrinos interact with the water in the Mediterranean Sea. When this happens, they produce a
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experiment (RE6). Other neutrino telescopes designed for use in the nearby area include the
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Deployment and connection of the detector are performed in cooperation with the French
192: 1288: 750: 109:. It is designed to be used as a directional neutrino telescope to locate and observe 896: 875: 722: 539: 515: 98: 94: 578: 523: 1323: 1247: 1076: 1031: 975: 947: 839: 570: 566: 511: 1112: 916: 422: 373: 310: 306: 274:). Over many years of operation, it may be able to produce a map of the neutrino 204: 155: 1389: 1384: 1364: 1197: 931: 195:. On the other hand, water contains more sources of background light than ice ( 136: 1445: 610: 326: 228: 128:
that detects neutrinos from both hemispheres. The experiment is a recognized
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biggest neutrino telescope in the Northern hemisphere (surpassing the
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lines, it also houses a separate dedicated acoustic detection system
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muon. ANTARES works by its photomultiplier tubes detecting the
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The array contains a set of twelve separate vertical strings of
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An artist illustration of the Antares neutrino detector and the
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The first neutrino detections were reported in Feb 2007.
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Detection of neutralino signals would also confirm 124:, a complement to the South Pole neutrino detector 309:being outside the energy range of ANTARES) or the 287:, which has a common field of view with ANTARES). 1443: 472:. — The ANTARES Collaboration official web-site. 651:Neutrino detectors, experiments, and facilities 635: 351: 116:from cosmic origins in the direction of the 1411:BNO (Baksan or Baxan Neutrino Observatory) 642: 628: 552: 497: 239:Victor, and for some past operations the 50: 210: 1444: 623: 249: 254:The ANTARES project complements the 13: 14: 1478: 1375:Long Baseline Neutrino Experiment 589: 485:The Astrophysical Journal Letters 415:"Recognized Experiments at CERN" 385:, the other 3 on the 12th line. 449:The CERN Experimental Programme 97:residing 2.5 km under the 571:10.1016/j.physletb.2012.07.002 530: 475: 463: 437: 419:The CERN Scientific Committees 407: 1: 692:Lederman–Schwartz–Steinberger 400: 1431:List of neutrino experiments 256:IceCube Neutrino Observatory 7: 388: 10: 1483: 516:10.1088/2041-8205/786/1/l5 352:Additional instrumentation 340: 62: 1403: 1357: 1281: 1100: 1044: 1019: 961: 940: 884: 853: 775: 760: 657: 606:KM3NeT neutrino telescope 222:Baikal neutrino telescope 159:On rare occasions, a few 149: 205:bioluminescent organisms 203:-40 in the sea salt and 1457:Neutrino observatories 421:. CERN. 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Index

42°48′N 6°10′E / 42.800°N 6.167°E / 42.800; 6.167

Nautile
Antares
neutrino detector
Mediterranean Sea
Toulon
France
neutrino
flux
Southern Hemisphere
Earth
IceCube
CERN
Greek
NESTOR
Italian
NEMO
photomultiplier
muon
high energy
Cherenkov radiation
Earth
South Pole
AMANDA
IceCube
resolving power
radioactive
potassium
bioluminescent organisms

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