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IceCube Neutrino Observatory

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Brinnel, Valery; Burruss, Rick; Cenko, S. Bradley; Coughlin, Michael W.; Cunningham, Virginia; Drake, Andrew; Farrar, Glennys R.; Feeney, Michael; Foley, Ryan J.; Gal-Yam, Avishay; Golkhou, V. Zach; Goobar, Ariel; Graham, Matthew J.; Hammerstein, Erica; Helou, George; Hung, Tiara; Kasliwal, Mansi M.; Kilpatrick, Charles D.; Kong, Albert K. H.; Kupfer, Thomas; Laher, Russ R.; Mahabal, Ashish A.; Masci, Frank J.; Necker, Jannis; Nordin, Jakob; Perley, Daniel A.; Rigault, Mickael; Reusch, Simeon; Rodriguez, Hector; Rojas-Bravo, CĂŠsar; Rusholme, Ben; Shupe, David L.; Singer, Leo P.; Sollerman, Jesper; Soumagnac, Maayane T.; Stern, Daniel; Taggart, Kirsty; van Santen, Jakob; Ward, Charlotte; Woudt, Patrick; Yao, Yuhan (22 February 2021). "A tidal disruption event coincident with a high-energy neutrino".
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rays hitting the far side of the Earth; some unknown fraction may come from astronomical sources, and these neutrinos are the key to IceCube point source searches. Estimates predict the detection of about 75 upgoing neutrinos per day in the fully constructed IceCube detector. The arrival directions of these astrophysical neutrinos are the points with which the IceCube telescope maps the sky. To distinguish these two types of neutrinos statistically, the direction and energy of the incoming neutrino is estimated from its collision by-products. Unexpected excesses in energy or excesses from a given spatial direction indicate an extraterrestrial source.
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several times before losing enough energy to fall below the Cherenkov threshold; this means that electron neutrino events cannot typically be used to point back to sources, but they are more likely to be fully contained in the detector, and thus they can be useful for energy studies. These events are
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PINGU (Precision IceCube Next Generation Upgrade) is a proposed extension that will allow detection of low energy neutrinos (GeV energy scale), with uses including determining the neutrino mass hierarchy, precision measurement of atmospheric neutrino oscillation (both tau neutrino appearance and muon
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As of 2024, plans for further upgrades to the array are in the federal approval process. If approved, the detectors for IceCube2 will each be eight times the size of those currently emplaced. The observatory will be able to detect more sources of particles, and discern their properties more finely at
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Reusch, Simeon; Stein, Robert; Kowalski, Marek; van Velzen, Sjoert; Franckowiak, Anna; Lunardini, Cecilia; Murase, Kohta; Winter, Walter; Miller-Jones, James C. A.; Kasliwal, Mansi M.; Gilfanov, Marat (3 June 2022). "Candidate Tidal Disruption Event AT2019fdr Coincident with a High-Energy Neutrino".
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from atmospheric cosmic ray showers, over a baseline across the Earth. It is most sensitive at ~25 GeV, the energy range for which the DeepCore sub-array has been optimized. DeepCore consists of 6 strings deployed in the 2009–2010 austral summer with a closer horizontal and vertical spacing. In
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The signals from the PMTs are digitized and then sent to the surface of the glacier on a cable. These signals are collected in a surface counting house, and some of them are sent north via satellite for further analysis. Since 2014, hard drives rather than tape store the balance of the data which is
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with each other at a significant rate. The decay products of this annihilation could decay into neutrinos, which could be observed by IceCube as an excess of neutrinos from the direction of the Sun. This technique of looking for the decay products of WIMP annihilation is called indirect, as opposed
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Although IceCube is expected to detect very few neutrinos (relative to the number of photons detected by more traditional telescopes), it should have very high resolution with the ones that it does find. Over several years of operation, it could produce a flux map of the northern hemisphere similar
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above the detector. There are about 10 times more cosmic ray muons than neutrino-induced muons observed in IceCube. Most of these can be rejected using the fact that they are traveling downwards. Most of the remaining (up-going) events are from neutrinos, but most of these neutrinos are from cosmic
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from November to February, when permanent sunlight allows for 24-hour drilling. Construction began in 2005, when the first IceCube string was deployed and sufficient data was collected to verify that the optical sensors functioned correctly. In the 2005–2006 season, an additional eight strings were
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expected from supernovae have energies well below the IceCube energy cutoff, IceCube could detect a local supernova. It would appear as a detector-wide, brief, correlated rise in noise rates. The supernova would have to be relatively close (within our galaxy) to get enough neutrinos before the 1/r
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are larger than the radius of the galaxy), so they are believed to come from extra-galactic sources. Astrophysical events which are cataclysmic enough to create such high energy particles would probably also create high energy neutrinos, which could travel to the Earth with very little deflection,
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Tau leptons can also create cascade events; but are short-lived and cannot travel very far before decaying, and are thus usually indistinguishable from electron cascades. A tau could be distinguished from an electron with a "double bang" event, where a cascade is seen both at the tau creation and
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Stein, Robert; Velzen, Sjoert van; Kowalski, Marek; Franckowiak, Anna; Gezari, Suvi; Miller-Jones, James C. A.; Frederick, Sara; Sfaradi, Itai; Bietenholz, Michael F.; Horesh, Assaf; Fender, Rob; Garrappa, Simone; Ahumada, TomĂĄs; Andreoni, Igor; Belicki, Justin; Bellm, Eric C.; BĂśttcher, Markus;
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IceCube is more sensitive to point sources in the northern hemisphere than in the southern hemisphere. It can observe astrophysical neutrino signals from any direction, but neutrinos coming from the direction of the southern hemisphere are swamped by the cosmic-ray muon background. Thus, early
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scale energies. Such searches are underway but have not so far isolated a double bang event from background events. Another way to detect lower energy tau neutrinos is through the "double pulse" signature, where a single DOM detect two distinct light arrival times corresponding to the neutrino
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interaction and tau decay vertices. One can also use machine learning (ML) techniques, such as Convolutional Neural Networks, to distinguish the tau neutrino signal. In 2024 the IceCube collaboration published its findings of seven astrophysical tau neutrino candidates using such a technique.
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because neutrinos interact so rarely. IceCube could observe these neutrinos: its observable energy range is about 100 GeV to several PeV. The more energetic an event is, the larger volume IceCube may detect it in; in this sense, IceCube is more similar to Cherenkov telescopes like the
461:. The Deep Core strings are deployed at the center (in the surface plane) of the larger array, deep in the clearest ice at the bottom of the array (between 1760 and 2450 m deep). There are no Deep Core DOMs between 1850 and 2107 m depth, as the ice is not as clear in those layers. 4316: 586:, a tau traveling at near the speed of light would require 20 TeV of energy for every meter traveled. Realistically, an experimenter would need more space than just one DOM to the next to distinguish two cascades, so double bang searches are centered at 4296: 842:
would be a distortion of the energy spectrum of atmospheric neutrinos around 1 TeV, for which IceCube is uniquely positioned to search. This signature would arise from matter effects as atmospheric neutrinos interact with the matter of the Earth.
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decay. This is only possible with very high energy taus. Hypothetically, to resolve a tau track, the tau would need to travel at least from one DOM to an adjacent DOM (17 m) before decaying. As the average lifetime of a tau is
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Abbasi, R.; Ackermann, M.; Adams, J.; Agarwalla, S. K.; Aguilar, J. A.; Ahlers, M.; Alameddine, J. M.; Amin, N. M.; Andeen, K.; Anton, G.; ArgĂźelles, C.; Ashida, Y.; Athanasiadou, S.; Axani, S. N.; Bai, X. (20 July 2023).
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Aartsen, M. G.; Ackermann, M.; Adams, J.; Aguilar, J. A.; Ahlers, M.; Ahrens, M.; Al Samarai, I.; Altmann, D.; Andeen, K.; Anderson, T.; Ansseau, I.; Anton, G.; ArgĂźelles, C.; Auffenberg, J.; Axani, S. (13 February 2018).
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Aartsen, M. G.; Ackermann, M.; Adams, J.; Aguilar, J. A.; Ahlers, M.; Ahrens, M.; Altmann, D.; Andeen, K.; Anderson, T.; Ansseau, I.; Anton, G.; ArgĂźelles, C.; Auffenberg, J.; Axani, S.; Backes, P. (15 February 2019).
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Aartsen, M. G.; Ackermann, M.; Adams, J.; Aguilar, J. A.; Ahlers, M.; Ahrens, M.; Alispach, C.; Andeen, K.; Anderson, T.; Ansseau, I.; Anton, G.; ArgĂźelles, C.; Auffenberg, J.; Axani, S.; Backes, P. (January 2020).
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Aartsen, M. G.; Ackermann, M.; Adams, J.; Aguilar, J. A.; Ahlers, M.; Ahrens, M.; Altmann, D.; Anderson, T.; Arguelles, C.; Arlen, T. C.; Auffenberg, J.; Bai, X.; Barwick, S. W.; Baum, V.; Bay, R. (7 April 2015).
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IceCube is more sensitive to muons than other charged leptons, because they are the most penetrating and thus have the longest tracks in the detector. Thus, of the neutrino flavors, IceCube is most sensitive to
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for this goal. IceCube has not observed any neutrinos in coincidence with gamma ray bursts, but is able to use this search to constrain neutrino flux to values less than those predicted by the current models.
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As more data is collected and IceCube measurements are refined further, it may be possible to observe the characteristic modification of the oscillation pattern at ~15 GeV that determines the neutrino
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parameters of the incoming neutrino. High-energy neutrinos may cause a large signal in the detector, pointing back to their origin. Clusters of such neutrino directions indicate point sources of neutrinos.
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A shadowing effect from the Moon has been observed. Cosmic ray protons are blocked by the Moon, creating a deficit of cosmic ray shower muons in the direction of the Moon. A small (under 1%) but robust
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In July 2018, the IceCube Neutrino Observatory announced that they had traced an extremely-high-energy neutrino that hit their detector in September 2017 back to its point of origin in the
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DOMs are deployed on strings of 60 modules each at depths between 1,450 and 2,450 meters into holes melted in the ice using a hot water drill. IceCube is designed to look for point sources of
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A point source of neutrinos could help explain the mystery of the origin of the highest energy cosmic rays. These cosmic rays have energies high enough that they cannot be contained by
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R. Abbasi; et al. (IceCube Collaboration) (2010). "Limits on a muon flux from Kaluza-Klein dark matter annihilations in the Sun from the IceCube 22-string detector".
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and among those a pair of high energy neutrinos in the peta-electron volt range, making them the highest energy neutrinos discovered to date. The pair were nicknamed
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Abbasi, R.; et al. (IceCube Collaboration) (2009). "Limits on a muon flux from neutralino annihilations in the Sun with the IceCube 22 string detector".
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Top-view of the IceCube Neutrino Observatory. The IceCube-InIce strings and IceTop stations are separated by about 125 meters in a triangular grid pattern.
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Each of the above steps requires a certain minimum energy, and thus IceCube is sensitive mostly to high-energy neutrinos, in the range of 10 to about 10 
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Aartsen, M. G.; et al. (Icecube-Gen2 Collaboration) (18 December 2014). "IceCube-Gen2: A Vision for the Future of Neutrino Astronomy in Antarctica".
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The described detection strategy, along with its South Pole position, could allow the detector to provide the first robust experimental evidence of
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Aartsen, Mark; et al. (13 July 2018). "Multimessenger observations of a flaring blazar coincident with high-energy neutrino IceCube-170922A".
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Aartsen, Mark; et al. (13 July 2018). "Neutrino emission from the direction of the blazar TXS 0506+056 prior to the IceCube-170922A alert".
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Aartsen, M.G.; et al. (IceCube Collaboration) (2014). "Observation of high-energy astrophysical neutrinos in three years of IceCube data".
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R. Abbasi; et al. (IceCube Collaboration) (2011). "Limits on Neutrino Emission from Gamma-Ray Bursts with the 40 String IceCube Detector".
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TV show. Later in 2013 the number of detection increased to 37 candidates including a new high energy neutrino at 2000-TeV given the name of "
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The Deep Core Low-Energy Extension is a densely instrumented region of the IceCube array which extends the observable energies below 100 
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to direct searches which look for dark matter interacting within a contained, instrumented volume. Solar WIMP searches are more sensitive to
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Aartsen, M.G.; et al. (IceCube Collaboration) (2013). "Evidence for high-energy extraterrestrial neutrinos at the IceCube Detector".
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R. Abbasi; et al. (IceCube Collaboration) (2009). "Extending the Search for Neutrino Point Sources with IceCube above the Horizon".
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IceCube point source searches focus on the northern hemisphere, and the extension to southern hemisphere point sources takes extra work.
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Abbasi, R.; et al. (IceCube Collaboration) (2009). "First neutrino point-source results from the 22 string Icecube Detector".
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The detector signatures of the three charged leptons are distinct, and as such it's possible to determine the neutrino flavor of
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R. Abbasi; et al. (IceCube Collaboration) (2010). "Calibration and Characterization of the IceCube Photomultiplier Tube".
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Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment
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Abbasi, R.; et al. (April 2009). "The IceCube data acquisition system: Signal capture, digitization, and timestamping".
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Meier, Maximilian; Soedingrekso, Jan (2019). "Search for Astrophysical Tau Neutrinos with an Improved Double Pulse Method".
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Aartsen, M. G.; et al. (2013). "Measurement of South Pole ice transparency with the IceCube LED calibration system".
1011:(TDE) AT2019dsg was reported as candidate for a neutrino source and the TDE AT2019fdr as a second candidate in June 2022. 423:
The IceCube Neutrino Observatory is composed of several sub-detectors which is also in addition to the main in-ice array.
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Aartsen, M. G.; et al. (11 March 2021). "Detection of a particle shower at the Glashow resonance with IceCube".
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Abbasi, R.; et al. (4 November 2022). "Evidence for neutrino emission from the nearby active galaxy NGC 1068".
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on the surface of the glacier, with two detectors approximately above each IceCube string. IceTop is used as a
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instead, the final state contains no information of the neutrino flavor since no charged lepton was created.
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In November 2013 it was announced that IceCube had detected 28 neutrinos that likely originated outside the
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in 2014, using three years of data taken May 2011 to April 2014, including DeepCore, determining
264:(AMANDA), IceCube consists of spherical optical sensors called Digital Optical Modules (DOMs), each with a 91: 5047: 5000: 4854: 4176: 3580: 3575: 3393: 2841: 654: 4894: 4566: 4544: 4522: 2330: 1588: 1022:. It is the second detection by IceCube after TXS 0506+056, and only the fourth known source including 3271:
IceCube Collaboration (29 June 2023). "Observation of high-energy neutrinos from the Galactic plane".
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experiment (RE10). Its thousands of sensors are located under the Antarctic ice, distributed over a
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Abbasi, R.; Desiati, P.; DĂ­az VĂŠlez, J.C. (2009). "Large scale cosmic ray anisotropy with IceCube".
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Castelvecchi, Davide (8 August 2016). "Icy telescope throws cold water on sterile neutrino theory".
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Construction was completed on 17 December 2010. The total cost of the project was $ 279 million.
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In 2016, scientists at the IceCube detector did not find any evidence for the sterile neutrino.
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annihilation in the Sun. A vision has been presented for a larger observatory, IceCube-Gen2.
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sent north once a year via ship. Once the data reaches experimenters, they can reconstruct
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In June 2023 IceCube identified as a galactic map the neutrino diffuse emission from the
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of a boat traveling faster than the waves it crosses. This light can then be detected by
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In November 2022, IceCube announced strong evidence of a neutrino source emitted by the
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The IceCube collaboration has published flux limits for neutrinos from point sources,
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is observed going through IceTop, it cannot be from a neutrino interacting in the ice.
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Boersma, D.; Gladstone, L.; Karle, A. (2009). "Moon shadow observation by IceCube".
2422: 2314: 2190: 1915:"Measurement of Atmospheric Neutrino Oscillations at 6–56 GeV with IceCube DeepCore" 1785: 1694: 1261: 1109: 4687: 4089: 4013: 3842: 3797: 3741: 3713: 3605: 3300: 3218:"IceCube neutrinos give us first glimpse into the inner depths of an active galaxy" 3190: 3135: 3080: 3076: 3072: 3005: 2951: 2785: 2732: 2661: 2657: 2568: 2402: 2398: 2394: 2347: 2302: 2255: 2178: 2126: 2116: 2082: 2027: 2017: 1954: 1949: 1944: 1914: 1889: 1840: 1828: 1769: 1765: 1674: 1670: 1666: 1567: 1430: 1249: 1146: 1068: 839: 804:. This mechanism for determining the mass hierarchy only works as the mixing angle 595: 478: 432: 65: 4207: 4978: 4874: 4392: 3878: 3682: 3340: 1172: 874: 701: 534: 530: 523: 514:. This happens when the charged particle travels through the ice faster than the 495: 487: 254: 3246: 2087: 2052: 4958: 4677: 4497: 4477: 4155: 4150: 4130: 3963: 3697: 3009: 2955: 2869:"Neutrino that struck Antarctica traced to galaxy 3.7 bn light years away" 2837: 2146: 2022: 1987: 1894: 1859: 1832: 1491: 1434: 1253: 1150: 1054: 1034: 1027: 970: 901: 746: 668:
IceCube scientists may have detected their first neutrinos on 29 January 2006.
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had been used to locate an object in space, and indicated that a source of
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events. On the other hand if the neutrino scattered off the ice via the
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IceCube is part of a series of projects developed and supervised by the
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Proceedings of 36th International Cosmic Ray Conference — PoS(ICRC2019)
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Taboada, I. (2009). "Searches for neutrinos from GRBs with IceCube".
2233:"South Pole Neutrino Detector Could Yield Evidences of String Theory" 1714: 1001: 982: 754: 697: 519: 2232: 757:). IceCube has set better limits with the 22 string detector (about 598:
of muons created not by neutrinos from astrophysical sources but by
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could be gravitationally captured by massive objects like the
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IceCube measured 10–100 GeV atmospheric muon neutrino
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annihilation in the Sun, with implications for WIMP–proton
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2014, DeepCore data was used to determine the mixing angle
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Astronomical telescopes and observatories in the Antarctic
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distance dependence took over. IceCube is a member of the
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within the digital optical modules making up IceCube.
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Nuclear Instruments and Methods in Physics Research A
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IceCube drilling tower and hose reel in December 2009
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could complete the map for the southern hemisphere.
181: 4237: 574:"-like; muon neutrino events are more track-like. 1561: 1496:"IceCube: A Kilometer-Scale Neutrino Observatory" 482:Three dimensional layout of the neutrino detector 446:detector, for cosmic ray composition studies and 30:"IceCube" redirects here. For the satellite, see 5029: 720: 3417:Neutrino detectors, experiments, and facilities 1612:Pennsylvania State University (13 March 2024), 435:for IceCube. AMANDA was turned off in May 2009. 431:, was the first part built, and it served as a 2149:(2008). "The SuperNova Early Warning System". 767:of the full detector) than the AMANDA limits. 54:IceCube Neutrino Observatory at the South Pole 4223: 3401: 2627: 2538: 3264: 2897:"Source of cosmic 'ghost' particle revealed" 2830: 2601: 2249: 2145: 1707: 1630: 1302: 1586: 977:away in the direction of the constellation 466:neutrino disappearance), and searching for 4230: 4216: 4177:BNO (Baksan or Baxan Neutrino Observatory) 3408: 3394: 3241: 3023:Jeanette, Kazmierczak (22 February 2021). 2970: 1382: 1380: 1077:Antarctic Muon And Neutrino Detector Array 672:Gamma-ray bursts coincident with neutrinos 498:interaction, they create charged leptons ( 429:Antarctic Muon And Neutrino Detector Array 262:Antarctic Muon And Neutrino Detector Array 64: 48: 3286: 3176: 3139: 3058: 2991: 2937: 2771: 2718: 2643: 2554: 2515: 2479: 2380: 2288: 2164: 2130: 2120: 2086: 2068: 2031: 2021: 2003: 1958: 1948: 1930: 1893: 1875: 1814: 1798: 1751: 1735: 1652: 1636: 1571: 1490: 1475: 1416: 1235: 1219: 1132: 963:) = 0.51 Âą 0.05 (normal mass hierarchy). 570:more spherical, or "cascade"-like, than " 473: 3113: 3022: 2203: 1457:"IceCube looks to the future with PINGU" 1305:"IceCube - One hole done, 79 more to go" 893:has been observed in cosmic ray muons. 770: 614: 477: 414: 302: 190:Location of IceCube Neutrino Observatory 2917: 2836: 2438:"APS 2009: The muon shadow of the Moon" 2327: 1484: 1469: 1400: 1377: 14: 5030: 3333: 2810: 2364: 2272: 816: 624:Point sources of high energy neutrinos 4815:Great Lakes Bioenergy Research Center 4693:Wisconsin School (diplomatic history) 4211: 3389: 3215: 2045: 2043: 1980: 1978: 1907: 1905: 1852: 1850: 1296: 610: 407:both lower and higher energy levels. 296:deployed, making IceCube the largest 4885:Wisconsin Alumni Research Foundation 4458:Space Science and Engineering Center 2435: 2206:"At last, a way to test time travel" 1327:"IceCube Neutrino Detector COMPLETE" 833: 3116:"Neutrinos from a Black Hole Snack" 2507:International Cosmic Ray Conference 2471:International Cosmic Ray Conference 1037:at the 4.5σ level of significance. 726:Weakly interacting massive particle 27:Neutrino detector at the South Pole 24: 4900:Wisconsin Institutes for Discovery 2040: 1975: 1902: 1847: 653:to existing maps like that of the 25: 5084: 5068:2010 establishments in Antarctica 4302:Journalism and Mass Communication 4141:Long Baseline Neutrino Experiment 3352: 1708:K. Mizoguchi (17 February 2006). 1223:Nuclear Instruments and Methods A 985:. This was the first time that a 959:= (2.41 Âą 0.07) × 10 eV and sin(θ 821:Despite the fact that individual 696:whereas neutral pions decay into 680:collide with one another or with 243:Amundsen–Scott South Pole Station 85:Amundsen–Scott South Pole Station 4850:Morgridge Institute for Research 2811:Jepsen, Kathryn (12 July 2018). 1303:K. Hutchison (24 October 2005). 1165:"Recognized Experiments at CERN" 1061: 1047: 561:. An electron resulting from an 438:The IceTop array is a series of 410: 260:Similar to its predecessor, the 201: 180: 173: 5058:University of Wisconsin–Madison 4668:Teaching Assistants Association 4317:Library and Information Studies 4240:University of Wisconsin–Madison 3334:Lewton, Thomas (29 June 2023). 3327: 3235: 3209: 3156: 3107: 3037: 3016: 2889: 2861: 2804: 2751: 2698: 2692:"Big Bird joins Bert and Ernie" 2684: 2621: 2595: 2532: 2496: 2460: 2429: 2358: 2321: 2266: 2243: 2225: 2197: 2139: 2109:The European Physical Journal C 2095: 1792: 1729: 1701: 1605: 1580: 1555: 1520: 1463: 1449: 1394: 1363: 1199:The CERN Experimental Programme 289:University of Wisconsin–Madison 282: 239:University of Wisconsin–Madison 4995:University of Wisconsin System 4825:History of Cartography Project 4820:Helically Symmetric Experiment 4272:Agricultural and Life Sciences 3114:Buchanan, Mark (3 June 2022). 3077:10.1103/PhysRevLett.128.221101 2662:10.1103/PhysRevLett.113.101101 2602:Devorsky, G. (26 April 2013). 2399:10.1103/PhysRevLett.102.201302 2122:10.1140/epjc/s10052-019-7555-0 1950:10.1103/PhysRevLett.120.071801 1770:10.1103/PhysRevLett.106.141101 1671:10.1103/PhysRevLett.103.221102 1345: 1319: 1282: 1276:"IceCube Neutrino Observatory" 1268: 1213: 1187: 1169:The CERN Scientific Committees 1157: 1082:Radio Ice Cherenkov Experiment 828:Supernova Early Warning System 249:. The project is a recognized 13: 1: 3458:Lederman–Schwartz–Steinberger 2276:Astrophysical Journal Letters 1587:Lea, Robert (14 March 2024), 1307:(Press release). SpaceRef.com 1195:"RE10/ICECUBE : IceCube" 1102: 721:Indirect dark matter searches 4830:IceCube Neutrino Observatory 4597:University Ridge Golf Course 4483:Synchrotron Radiation Center 4408:DeLuca Biochemistry Building 4197:List of neutrino experiments 1371:"Frequently Asked Questions" 904:, after characters from the 688:. Charged pions decay into 227:IceCube Neutrino Observatory 43:IceCube Neutrino Observatory 7: 4855:Pegasus Toroidal Experiment 2442:blogs.nature.com/news/blog/ 2307:10.1088/0004-637X/701/1/L47 2088:10.1103/PhysRevD.108.012014 1040: 655:cosmic microwave background 518:in the ice, similar to the 10: 5089: 4964:Undergraduate Projects Lab 4895:Wisconsin Energy Institute 4322:Medicine and Public Health 3010:10.1038/s41550-020-01295-8 2956:10.1038/s41586-021-03256-1 2331:AIP Conference Proceedings 2023:10.1103/PhysRevD.99.032007 1895:10.1103/PhysRevD.91.072004 1833:10.1103/PhysRevD.81.057101 1435:10.1016/j.nima.2013.01.054 1254:10.1016/j.nima.2010.03.102 1151:10.1016/j.nima.2009.01.001 868: 29: 5011: 4987: 4908: 4860:UW Hospital & Clinics 4792: 4774:Alumni, faculty and staff 4764: 4701: 4625: 4511: 4428:Lakeshore Nature Preserve 4360: 4262: 4247: 4169: 4123: 4047: 3866: 3810: 3785: 3727: 3706: 3650: 3619: 3541: 3526: 3423: 3216:Staff (3 November 2022). 2260:10.1038/nature.2016.20382 2152:Astronomische Nachrichten 996:In 2020, evidence of the 973:located 5.7 billion 212: 199: 168: 154: 150: 145: 129: 90: 80: 72: 59: 47: 4865:University Research Park 4378:Allen Centennial Gardens 2817:www.symmetrymagazine.org 2505:Proceedings of the 31st 2469:Proceedings of the 31st 2204:M. Chown (22 May 2006). 1097:Multimessenger astronomy 684:, the result is usually 639:Pierre Auger Observatory 630:galactic magnetic fields 207:Related media on Commons 4974:Wisconsin Film Festival 4840:Madison Symmetric Torus 4653:Single-grain experiment 4503:Wisconsin Union Theater 3305:10.1126/science.adc9818 3195:10.1126/science.abg3395 3047:Physical Review Letters 2790:10.1126/science.aat2890 2737:10.1126/science.aat1378 2631:Physical Review Letters 2573:10.1126/science.1242856 2436:Hand, E. (3 May 2009). 2368:Physical Review Letters 1919:Physical Review Letters 1739:Physical Review Letters 1640:Physical Review Letters 1016:active galactic nucleus 241:and constructed at the 5063:Cosmic-ray experiments 5043:Neutrino observatories 4743:The Wisconsin Engineer 4683:Wisconsin Idea Theatre 4453:Pine Bluff Observatory 2183:10.1002/asna.200710934 1537:) × average lifetime ( 1171:. CERN. Archived from 1009:tidal disruption event 1007:In February 2021, the 736:and accumulate in the 620: 483: 474:Experimental mechanism 420: 308: 60:Alternative names 4805:Carbone Cancer Center 4663:Sterling Hall bombing 4648:Sifting and winnowing 4297:International Studies 3141:10.1103/Physics.15.77 993:had been identified. 777:neutrino oscillations 771:Neutrino oscillations 618: 524:photomultiplier tubes 481: 418: 306: 114:89.99000°S 63.45306°W 76:IceCube collaboration 5053:Particle experiments 4810:Center for Limnology 4750:Wisconsin Law Review 4726:Scandinavian Studies 4638:Experimental College 4493:Washburn Observatory 4398:Chazen Museum of Art 3512:Neutrino oscillation 923:neutrino oscillation 775:IceCube can observe 659:gamma ray telescopes 266:photomultiplier tube 235:neutrino observatory 119:-89.99000; -63.45306 32:IceCube (spacecraft) 4939:Iron Shield Society 4919:Fundamentally Sound 4352:Veterinary Medicine 4312:Letters and Science 4182:Kamioka Observatory 3297:2023Sci...380.1338I 3281:(6652): 1338–1343. 3187:2022Sci...378..538I 3132:2022PhyOJ..15...77B 3069:2022PhRvL.128v1101R 3002:2021NatAs...5..510S 2948:2021Natur.591..220I 2782:2018Sci...361..147I 2729:2018Sci...361.1378I 2694:. 27 November 2013. 2654:2014PhRvL.113j1101A 2565:2013Sci...342E...1I 2526:2009arXiv0907.0498A 2490:2010arXiv1002.4900B 2391:2009PhRvL.102t1302A 2344:2009AIPC.1133..431T 2299:2009ApJ...701L..47A 2175:2008AN....329..337S 2079:2023PhRvD.108a2014A 2014:2019PhRvD..99c2007A 1941:2018PhRvL.120g1801A 1886:2015PhRvD..91g2004A 1825:2010PhRvD..81e7101A 1762:2011PhRvL.106n1101A 1663:2009PhRvL.103v1102A 1573:10.22323/1.358.0960 1508:on 9 September 2006 1459:. 30 December 2013. 1427:2013NIMPA.711...73A 1333:on 25 December 2010 1278:. 20 December 2023. 1246:2010NIMPA.618..139A 1143:2009NIMPA.601..294A 817:Galactic supernovae 789:and mass splitting 512:Cherenkov radiation 440:Cherenkov detectors 110: /  63:IceCube Laboratory 44: 5048:Neutrino astronomy 5004:(1979 documentary) 4845:McArdle Laboratory 4719:The Daily Cardinal 4255:Madison, Wisconsin 3085:20.500.11937/90027 2847:The New York Times 2239:. 26 January 2006. 1390:. 8 December 2023. 1290:"Institution List" 902:"Bert" and "Ernie" 706:supernova remnants 621: 611:Experimental goals 484: 421: 317:Strings Installed 309: 298:neutrino telescope 42: 5025: 5024: 4712:The Badger Herald 4612:Paul Bunyan's Axe 4205: 4204: 3939:Heidelberg-Moscow 3806: 3805: 3663:ICARUS (Fermilab) 3377:IceCube expermint 3171:(6619): 538–543. 2932:(7849): 220–224. 2766:(6398): 147–151. 2549:(6161): 1242856. 2352:10.1063/1.3155942 2057:Physical Review D 1992:Physical Review D 1864:Physical Review D 1802:Physical Review D 998:Glashow resonance 987:neutrino detector 940:× 10 eV and sin(θ 840:sterile neutrinos 834:Sterile neutrinos 594:There is a large 563:electron neutrino 444:cosmic ray shower 401: 400: 237:developed by the 223: 222: 164: 163: 16:(Redirected from 5080: 5073:CERN experiments 4767: 4688:Wisconsin school 4643:Past Chancellors 4617:Heartland Trophy 4515: 4373:Agriculture Hall 4256: 4241: 4232: 4225: 4218: 4209: 4208: 4090:Neutrino Factory 3843:Hyper-Kamiokande 3606:Super-Kamiokande 3539: 3538: 3506: 3505: 3504: 3496: 3495: 3479: 3478: 3477: 3469: 3468: 3452: 3451: 3450: 3442: 3441: 3410: 3403: 3396: 3387: 3386: 3364: 3363: 3361:Official website 3346: 3345: 3331: 3325: 3324: 3290: 3268: 3262: 3261: 3259: 3257: 3247:"AAS 240: Day 3" 3245:(16 June 2022). 3239: 3233: 3232: 3230: 3228: 3213: 3207: 3206: 3180: 3160: 3154: 3153: 3143: 3111: 3105: 3104: 3062: 3041: 3035: 3034: 3020: 3014: 3013: 2995: 2980:Nature Astronomy 2974: 2968: 2967: 2941: 2921: 2915: 2914: 2912: 2910: 2893: 2887: 2886: 2884: 2882: 2865: 2859: 2858: 2856: 2854: 2840:(12 July 2018). 2834: 2828: 2827: 2825: 2823: 2808: 2802: 2801: 2775: 2755: 2749: 2748: 2722: 2702: 2696: 2695: 2688: 2682: 2681: 2647: 2625: 2619: 2618: 2616: 2614: 2599: 2593: 2592: 2558: 2536: 2530: 2529: 2519: 2510:. ŁódĹş, Poland. 2500: 2494: 2493: 2483: 2474:. ŁódĹş, Poland. 2464: 2458: 2457: 2455: 2453: 2444:. Archived from 2433: 2427: 2426: 2384: 2362: 2356: 2355: 2325: 2319: 2318: 2292: 2270: 2264: 2263: 2247: 2241: 2240: 2229: 2223: 2222: 2220: 2218: 2201: 2195: 2194: 2168: 2143: 2137: 2136: 2134: 2124: 2099: 2093: 2092: 2090: 2072: 2047: 2038: 2037: 2035: 2025: 2007: 1982: 1973: 1972: 1962: 1952: 1934: 1909: 1900: 1899: 1897: 1879: 1854: 1845: 1844: 1818: 1796: 1790: 1789: 1755: 1733: 1727: 1726: 1724: 1722: 1705: 1699: 1698: 1656: 1634: 1628: 1627: 1626: 1624: 1609: 1603: 1602: 1601: 1599: 1584: 1578: 1577: 1575: 1559: 1553: 1552: 1550: 1544: 1542: 1536: 1534: 1531: 1526:Speed of light ( 1524: 1518: 1517: 1515: 1513: 1507: 1501:. Archived from 1500: 1488: 1482: 1481: 1479: 1467: 1461: 1460: 1453: 1447: 1446: 1420: 1398: 1392: 1391: 1384: 1375: 1374: 1367: 1361: 1360: 1349: 1343: 1342: 1340: 1338: 1329:. Archived from 1323: 1317: 1316: 1314: 1312: 1300: 1294: 1293: 1286: 1280: 1279: 1272: 1266: 1265: 1239: 1230:(1–3): 139–152. 1217: 1211: 1210: 1208: 1206: 1191: 1185: 1184: 1182: 1180: 1161: 1155: 1154: 1136: 1116: 1071: 1069:Astronomy portal 1066: 1065: 1064: 1057: 1052: 1051: 954: 953: 952: 939: 938: 937: 875:gamma-ray bursts 848:extra dimensions 766: 765: 761: 702:gamma-ray bursts 585: 583: 565:event typically 448:coincident event 433:proof-of-concept 311: 310: 277:teraelectronvolt 216:edit on Wikidata 205: 184: 183: 177: 152: 151: 141: 138: 136: 125: 124: 122: 121: 120: 115: 111: 108: 107: 106: 103: 68: 52: 45: 41: 21: 5088: 5087: 5083: 5082: 5081: 5079: 5078: 5077: 5028: 5027: 5026: 5021: 5007: 5001:The War at Home 4983: 4979:Wisconsin Union 4904: 4875:WIYN Consortium 4788: 4765: 4760: 4703: 4697: 4621: 4513: 4507: 4418:Heating Station 4393:Chamberlin Hall 4368:Abraham's Woods 4356: 4264: 4258: 4254: 4243: 4239: 4236: 4206: 4201: 4165: 4119: 4043: 3862: 3802: 3781: 3723: 3702: 3646: 3615: 3534: 3532: 3530: 3528: 3522: 3503: 3500: 3499: 3498: 3494: 3492: 3491: 3490: 3489: 3476: 3473: 3472: 3471: 3467: 3465: 3464: 3463: 3462: 3449: 3446: 3445: 3444: 3440: 3438: 3437: 3436: 3435: 3419: 3414: 3359: 3358: 3355: 3350: 3349: 3341:Quanta Magazine 3332: 3328: 3269: 3265: 3255: 3253: 3240: 3236: 3226: 3224: 3214: 3210: 3161: 3157: 3112: 3108: 3042: 3038: 3021: 3017: 2975: 2971: 2922: 2918: 2908: 2906: 2895: 2894: 2890: 2880: 2878: 2867: 2866: 2862: 2852: 2850: 2838:Overbye, Dennis 2835: 2831: 2821: 2819: 2809: 2805: 2756: 2752: 2703: 2699: 2690: 2689: 2685: 2626: 2622: 2612: 2610: 2600: 2596: 2537: 2533: 2501: 2497: 2465: 2461: 2451: 2449: 2434: 2430: 2363: 2359: 2326: 2322: 2271: 2267: 2248: 2244: 2231: 2230: 2226: 2216: 2214: 2202: 2198: 2144: 2140: 2100: 2096: 2048: 2041: 2033:1721.1/132130.2 1983: 1976: 1910: 1903: 1855: 1848: 1797: 1793: 1734: 1730: 1720: 1718: 1706: 1702: 1635: 1631: 1622: 1620: 1610: 1606: 1597: 1595: 1585: 1581: 1566:. p. 960. 1560: 1556: 1548: 1546: 1540: 1538: 1532: 1529: 1527: 1525: 1521: 1511: 1509: 1505: 1498: 1489: 1485: 1468: 1464: 1455: 1454: 1450: 1399: 1395: 1386: 1385: 1378: 1369: 1368: 1364: 1351: 1350: 1346: 1336: 1334: 1325: 1324: 1320: 1310: 1308: 1301: 1297: 1288: 1287: 1283: 1274: 1273: 1269: 1218: 1214: 1204: 1202: 1193: 1192: 1188: 1178: 1176: 1175:on 13 June 2019 1163: 1162: 1158: 1117: 1110: 1105: 1067: 1062: 1060: 1053: 1046: 1043: 1028:solar neutrinos 962: 958: 950: 948: 947: 945: 943: 935: 933: 932: 930: 928: 871: 838:A signature of 836: 819: 811: 795: 787: 773: 763: 759: 758: 738:core of the Sun 723: 674: 626: 613: 581: 579: 535:neutral current 531:charged current 496:charged current 476: 413: 285: 255:cubic kilometer 219: 195: 194: 193: 192: 191: 187: 186: 185: 133: 118: 116: 112: 109: 104: 101: 99: 97: 96: 55: 40: 35: 28: 23: 22: 15: 12: 11: 5: 5086: 5076: 5075: 5070: 5065: 5060: 5055: 5050: 5045: 5040: 5023: 5022: 5020: 5019: 5012: 5009: 5008: 5006: 5005: 4997: 4991: 4989: 4985: 4984: 4982: 4981: 4976: 4971: 4966: 4961: 4959:On, Wisconsin! 4956: 4951: 4946: 4941: 4936: 4931: 4926: 4921: 4916: 4912: 4910: 4906: 4905: 4903: 4902: 4897: 4892: 4887: 4882: 4877: 4872: 4867: 4862: 4857: 4852: 4847: 4842: 4837: 4832: 4827: 4822: 4817: 4812: 4807: 4802: 4796: 4794: 4790: 4789: 4787: 4786: 4781: 4776: 4770: 4768: 4762: 4761: 4759: 4758: 4753: 4746: 4739: 4734: 4729: 4722: 4715: 4707: 4705: 4699: 4698: 4696: 4695: 4690: 4685: 4680: 4678:Wisconsin Idea 4675: 4670: 4665: 4660: 4655: 4650: 4645: 4640: 4635: 4629: 4627: 4623: 4622: 4620: 4619: 4614: 4609: 4604: 4599: 4594: 4589: 4584: 4579: 4574: 4569: 4564: 4559: 4553: 4547: 4542: 4537: 4531: 4525: 4519: 4517: 4509: 4508: 4506: 4505: 4500: 4498:Weinert Center 4495: 4490: 4485: 4480: 4478:Stock Pavilion 4475: 4470: 4465: 4460: 4455: 4450: 4445: 4443:Memorial Union 4440: 4435: 4430: 4425: 4420: 4415: 4413:Geology Museum 4410: 4405: 4400: 4395: 4390: 4385: 4380: 4375: 4370: 4364: 4362: 4358: 4357: 4355: 4354: 4349: 4344: 4342:Public Affairs 4339: 4334: 4329: 4324: 4319: 4314: 4309: 4304: 4299: 4294: 4289: 4284: 4279: 4274: 4268: 4266: 4260: 4259: 4248: 4245: 4244: 4235: 4234: 4227: 4220: 4212: 4203: 4202: 4200: 4199: 4194: 4189: 4184: 4179: 4173: 4171: 4167: 4166: 4164: 4163: 4158: 4153: 4151:NESTOR Project 4148: 4143: 4138: 4133: 4131:DUMAND Project 4127: 4125: 4121: 4120: 4118: 4117: 4112: 4107: 4102: 4097: 4092: 4087: 4082: 4077: 4072: 4067: 4062: 4057: 4051: 4049: 4045: 4044: 4042: 4041: 4036: 4031: 4026: 4021: 4016: 4011: 4006: 4001: 3996: 3991: 3986: 3981: 3976: 3971: 3966: 3961: 3956: 3951: 3946: 3941: 3936: 3931: 3926: 3921: 3916: 3911: 3906: 3901: 3896: 3891: 3886: 3881: 3876: 3870: 3868: 3864: 3863: 3861: 3860: 3855: 3850: 3845: 3840: 3835: 3830: 3825: 3820: 3814: 3812: 3808: 3807: 3804: 3803: 3801: 3800: 3795: 3789: 3787: 3783: 3782: 3780: 3779: 3774: 3769: 3764: 3759: 3754: 3749: 3744: 3739: 3733: 3731: 3725: 3724: 3722: 3721: 3716: 3710: 3708: 3704: 3703: 3701: 3700: 3695: 3690: 3685: 3680: 3675: 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Index

IceCube
IceCube (spacecraft)

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Amundsen–Scott South Pole Station
Coordinates
89°59′24″S 63°27′11″W / 89.99000°S 63.45306°W / -89.99000; -63.45306
icecube.wisc.edu
Neutrino
IceCube Neutrino Observatory is located in Antarctica

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neutrino observatory
University of Wisconsin–Madison
Amundsen–Scott South Pole Station
Antarctica
CERN
cubic kilometer
Antarctic Muon And Neutrino Detector Array
photomultiplier tube
neutrinos
teraelectronvolt
University of Wisconsin–Madison
austral summer
neutrino telescope


Antarctic Muon And Neutrino Detector Array
proof-of-concept

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