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Sara Rebecca Gozzini31/03/2022, 10:00
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Stephan Meighen-Berger (Technical University of Munich (TUM))31/03/2022, 10:20
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Olga Suvorova31/03/2022, 10:40
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Juan Antonio Aguilar Sanchez (Université Libre de Bruxelles)31/03/2022, 11:00
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Mr Rasmi Hajjar (IFIC (CSIC-UV))31/03/2022, 11:55
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Juan Antonio Aguilar Sanchez (Université Libre de Bruxelles)31/03/2022, 12:15
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Filippo Sala (CNRS and Sorbonne University)31/03/2022, 12:35
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Diyaselis Delgado Lopez (Harvard University (US))31/03/2022, 12:55
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Jeffrey Lazar (University of Wisconsin-Madison)31/03/2022, 14:45
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Dr Nadege Iovine (Université libre de Bruxelles (ULB))31/03/2022, 15:05
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Sergio Palomares-Ruiz (IFIC-Valencia)31/03/2022, 15:25
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Chiara Poirè (UPV)31/03/2022, 15:45
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Marco Cirelli (CNRS LPTHE Jussieu)31/03/2022, 16:35
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Ariane Dekker (University of Amsterdam)31/03/2022, 16:55
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Abdelhak Djouadi (University of Granada)31/03/2022, 17:15
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Javier Rico (IFAE)01/04/2022, 10:00
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Bradley Kavanagh01/04/2022, 10:20
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Maria Martinez (Universidad de Zaragoza)01/04/2022, 10:40
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Barbara Skrzypek01/04/2022, 11:00
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Daniel Lopez-Coto (ANTARES, KM3NeT, Universidad de Granada)01/04/2022, 11:50
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Manuel Masip (Universidad de Granada)01/04/2022, 12:10
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Giovanni Renzi01/04/2022, 12:30
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Aaron Vincent (Durham University)01/04/2022, 14:30
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Jeffrey Lazar (University of Wisconsin-Madison)01/04/2022, 14:50
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Sven Heinemeyer (CSIC (Madrid, ES))01/04/2022, 15:10
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Jeffrey Lazar (University of Wisconsin-Madison)
Indirect searches for signatures of corpuscular dark matter have been performed using all cosmic messengers: gamma rays, cosmic rays, and neutrinos. The search for dark matter from neutrinos is of particular importance since they are the only courier that can reach detectors from dark matter processes in dense environments, such as the core of the Sun or Earth, or from the edge of the...
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Jeffrey Lazar (University of Wisconsin-Madison)
In 2016 and 2018, the ANITA collaboration reported the observation of two anomalous events, with polarizations consistent with up-going neutrinos, but coming from too far below the horizon to have traversed Earth given their energies. While all Standard Model (SM) explanations of these events have been ruled out, explanations from beyond Standard Model scenarios have been put forth in the...
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Diyaselis Delgado Lopez (Harvard University (US))
Dark matter particles are predicted to decay or annihilate into Standard Model particles which would produce signals of neutrinos, gamma-rays, and other secondary particles. As no such signal has yet been detected, we turn to the least constrained channel where neutrinos provide an avenue to probe astrophysical sources of dark matter particles. We review the decay and annihilation of dark...
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Barbara Skrzypek
The measurement of ultra-high energy starting event neutrinos in the TeV-PeV range in IceCube has afforded us with the possibility of answering questions through multimessenger efforts in astroparticle physics. However, the origin and nature of these astrophysical neutrinos is still largely unresolved. Among existing tensions, for example, is the excess of neutrinos observed in the energy...
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Chiara Poirè (UPV)
One of the most popular candidate of Dark Matter (DM) particle are the Weakly Interacting Massive Particles (WIMPs). These, once gravitationally captured in massive celestial objects and annihilating between them into Standard Model particles, can be indirectly detected. The centre of those massive objects is, therefore, a place where to look for a possible neutrino excess from DM...
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