Instrumenting a gigaton of ice at the South Pole, the IceCube Neutrino Observatory can probe neutrino interactions and properties at high energies with large statistics. This is possible due to the existence of a flux of high-energy astrophysical neutrinos, discovered by IceCube in 2013-14, and the prevalence of neutrinos produced in cosmic ray interactions in the upper atmosphere. Recently, promising candidate sources have emerged for the astrophysical neutrino flux partially due to real time multi-messenger followup efforts, while measurements have also been performed of the neutrino-nucleon cross section above a TeV as well as neutrino oscillation parameters using hundreds of thousands of events. IceCube has also detected its first electron antineutrino candidate near the Glashow resonance energy of 6.3 PeV. This talk will highlight recent results and illustrate the unique capabilities of this detector, as well as illuminate the future of astroparticle physics at the south pole.
Prof. Rameez is from Kozhikode, Kerala. He finished his PhD in 2016 from University of Geneva Switzerland, working on Dark Matter searches with IceCube and model building/phenomenology for DM detection complementarity. For this he has won the CHIPP prize. Then he did four years of PostDoc at the Niels Bohr Institute (2 years with an independent grant from the Carlsberg foundation) , working on the IceCube realtime alert system as well as cosmology, and statistical methods to look for sub threshold sources etc. Since 2020 October he has been a Reader at DHEP, TIFR. His interests are mostly in the phenomenology and statistical interpretation of empirical data in astroparticle physics and cosmology.