IceCube-22 Solar WIMP Data

Searching for Muon Neutrinos from Dark Matter Annihilations in the Sun Relic dark matter in the galactic halo may become gravitationally trapped in the Sun and accumulate in its center, where it can annihilate each other, producing standard model particles, which may decay creating neutrinos. Neutrinos can escape the Sun and reach Earth. Icecube indirectly […]

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AMANDA 7 Year Data

Introduction The Antarctic Muon and Neutrino Detector Array (AMANDA) is an optical Cherenkov detector consisting of 677 optical modules arranged in 19 strings frozen ~1.5 km — ~2 km deep in the ice sheet at the geographic South Pole. Each optical module contains a 20 cm photomultiplier tube surrounded by a glass pressure sphere housing. […]

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1998 – Super-Kamiokande collaboration announces evidence of non-zero neutrino mass

Construction of Kamioka Underground Observatory, the predecessor of the present Kamioka Observatory, Institute for Cosmic Ray Research, University of Tokyo began in 1982 and was completed in April, 1983. The purpose of the observatory was to detect proton decay, one of the most fundamental questions of elementary particle physics. The detector, named KamiokaNDE for Kamioka […]

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1996 – AMANDA neutrino telescope observes neutrinos at the South Pole

The Antarctic Muon and Neutrino Detector Array (AMANDA) was a neutrino telescope located beneath the Amundsen-Scott South Pole Station. It consists of optical modules, each containing one photomultipler tube, sunk in Antarctic ice cap at a depth of about 1500 to 1900 meters. In its latest development stage, known as AMANDA-II, AMANDA is made up […]

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1995 – Missing solar neutrinos confirmed by GALLEX

Until the year 1990 there was no observation of the initial reaction in the nuclear fusion chain. This changed with the installation of the Gallium Experiments. Gallium as target allows neutrino interaction via νe + 71Ga → 71Ge + e–. The threshold of this reaction is 233 keV (see the spectrum) , low enough also […]

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1994 – First proclamation of possible neutrinos oscillations seen by LSND experiment

The Liquid Scintillator Neutrino Detector (LSND) experiment involved the amassed data collected between the years of 1993-1998 designed to measure the number of neutrinos being produced by an accelerator neutrino source. It consisted of a tank filled with 167 tons (50,000 gallons) of mineral oil, 14 pounds of b-PDB (butyl-phenyl-bipheny-oxydiazole) organic scintillator material, and an […]

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1989 – Kamiokande becomes second experiment detecting neutrinos from the sun and confirms anomaly of finding only 1/3 expected rate

The first evidence of the massive amount of energy produced by supernovas in a neutrino burst came in 1989 when both the Kamiokande and the IMB detected the resulting neutrinos. In 1989 the Kamiokande team confirmed Ray Davis’s 1968 results, that the flux of neutrinos from the Sun was indeed much lower than expected by […]

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1987 – Kamiokande and IMB detect simultaneous burst of neutrinos from Supernova

The first evidence of the massive amount of energy produced by supernovas in a neutrino burst came in 1989 when both the Kamiokande and the IMB detected the resulting neutrinos. In 1989 the Kamiokande team confirmed Ray Davis’s 1968 results, that the flux of neutrinos from the Sun was indeed much lower than expected, approximately […]

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