ICECUBE

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"Shadow Bomber" Galaxy May Explain Part of the Origin of Cosmic Neutrinos

A high-energy neutrino event has led astronomers to a distant, dusty galaxy. ALMA observations and gravitational lensing have revealed a compact core where intense star formation is taking place, potentially turning the galaxy into a natural particle accelerator.
Artist's impression of a blazar – an active core of a galaxy, powered by a supermassive black hole and emitting a powerful jet of plasma. Credit: M. Weiss/CfA

The source of the most energetic neutrino ever discovered may be surprising

Research by the KM3NeT collaboration suggests that the extreme neutrino detected in the Mediterranean Sea in 2023 did not come from a single event, but rather from a diffuse flux of particles generated in a population of active galactic nuclei known as blazars.
Finally the DOM experiment in the South Pole Telescope detector system is starting to give results. Credit: Mark Krasberg, IceCube/NSF

Bending reality: Einstein meets quantum mechanics in Antarctic ice

Researchers examine the interface between these two theories, using ultra-high-energy neutrinos detected by a particle detector placed deep inside the Antarctic ice sheet at the South Pole
Ice Cube Laboratory in Antarctica Credit: Sven Lidstrom, US National Science Foundation

A universe of particles / Michael Moyer

Particles from space deep in the ice

IceCube detector. Image: Jamie Young/NSF and IceCube Collaboration

Guests from the edge of the universe

Drilling the last hole to place the sensors of the ICE CUBE project in the South Pole. Photo: NSF

Construction of the IceCube Antarctic neutrino telescope has been completed

The "telescope" or rather the neutrino particle detector consists of a series of sensors scattered within a cubic kilometer of ice at the station located at the geographic South Pole
As the sun weakens, cosmic radiation at flight altitude strengthens

The Next Thing in Astronomy - Part IV - Seen from the Glacier