GHOST PARTICLES IN THE UNIVERSE NEUTRINOS IN ASTROPHYSICS AND COSMOLOGY

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1. Verfasser: Georg G. Raffelt
Format: Artículo científico
Sprache:en
Veröffentlicht: Universitat de València 2017
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author Georg G. Raffelt
author_facet Georg G. Raffelt
contents GHOST PARTICLES IN THE UNIVERSE NEUTRINOS IN ASTROPHYSICS AND COSMOLOGY Georg G. Raffelt Comunicación Neutrinos supernova dark matter flavor oscillations astroparticle physics Neutrinos are nearly massless and very difficult to detect because they interact so very weakly. Sixty years after seeing the first of these «ghost particles» we know a lot about their properties. Today, observing them in nuclear reactors, the Sun, the Earth’s crust and atmosphere, and at high energies from distant cosmic sources is almost a routine task – they have become unique astrophysical messengers. They are important for a number of aspects: neutrinos shape some of the most dramatic astrophysical phenomena in the form of stellar-collapse supernova explosions, they may have created the excess of matter over antimatter in the universe, and neutrino-like «weakly interacting massive particles» may well account for the dark matter of the universe. 2017 artículo científico 2174-3487 https://www.redalyc.org/articulo.oa?id=511754472025 en http://www.redalyc.org/revista.oa?id=5117 Mètode Science Studies Journal application/pdf Universitat de València Mètode Science Studies Journal (España) Num.7
format Artículo científico
id redalyc_511754472025
institution Redalyc
language en
publishDate 2017
publisher Universitat de València
spellingShingle GHOST PARTICLES IN THE UNIVERSE NEUTRINOS IN ASTROPHYSICS AND COSMOLOGY
Georg G. Raffelt
Comunicación
Neutrinos
supernova
dark matter
flavor oscillations
astroparticle physics
GHOST PARTICLES IN THE UNIVERSE NEUTRINOS IN ASTROPHYSICS AND COSMOLOGY Georg G. Raffelt Comunicación Neutrinos supernova dark matter flavor oscillations astroparticle physics Neutrinos are nearly massless and very difficult to detect because they interact so very weakly. Sixty years after seeing the first of these «ghost particles» we know a lot about their properties. Today, observing them in nuclear reactors, the Sun, the Earth’s crust and atmosphere, and at high energies from distant cosmic sources is almost a routine task – they have become unique astrophysical messengers. They are important for a number of aspects: neutrinos shape some of the most dramatic astrophysical phenomena in the form of stellar-collapse supernova explosions, they may have created the excess of matter over antimatter in the universe, and neutrino-like «weakly interacting massive particles» may well account for the dark matter of the universe. 2017 artículo científico 2174-3487 https://www.redalyc.org/articulo.oa?id=511754472025 en http://www.redalyc.org/revista.oa?id=5117 Mètode Science Studies Journal application/pdf Universitat de València Mètode Science Studies Journal (España) Num.7
title GHOST PARTICLES IN THE UNIVERSE NEUTRINOS IN ASTROPHYSICS AND COSMOLOGY
topic Comunicación
Neutrinos
supernova
dark matter
flavor oscillations
astroparticle physics
url https://www.redalyc.org/articulo.oa?id=511754472025