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neutrinos

Why a Peruvian mountain is becoming an 'impossible' particle detector

Space

Why a Peruvian mountain is becoming an 'impossible' particle detector

Deep canyons in the Andes are the perfect location to catch the most energetic particles in the universe. Carlos Argüelles-Delgado reveals how these intergalactic envoys could help prove the quantum nature of gravity

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Physics

Ghostly particles might just break our understanding of the universe

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Space

We may have finally solved an ultra-high-energy cosmic ray puzzle

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Space

'Impossible' particle that hit Earth may have been dark matter

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The 'impossible' particle hinting at the universe's biggest secrets

Physics

The 'impossible' particle hinting at the universe's biggest secrets

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Visual impression of the ultra-high energy neutrino event observed in KM3NeT/ARCA. The colours indicate the light seen by the ?eyes? on each module, where the different colours represent different observation times. The almost horizontally reconstructed track of the particle is shown as a line from right to left. Courtesy KM3NeT.

Physics

Why particle physicists are going wild for a record-breaking neutrino

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Physics

Record-breaking neutrino spotted tearing through the Mediterranean Sea

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Physics

How big is a neutrino? We're finally starting to get an answer

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35-ton-capacity Prototype cryostat for LBNF / DUNE, Anode Plane Assemblies - Construction of the DUNE 35-ton prototype detector

Physics

A tale of two mysteries: ghostly neutrinos and the proton decay puzzle

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https://www.nersc.gov/news-publications/nersc-news/science-news/2020/worlds-first-3d-simulations-reveals-the-physics-of-superluminous-supernovae/ Turbulent core of magnetar bubble inside the superluminous supernovae. Color coding shows the densities. The magnetar is located at the center of this image. Strong turbulence is caused by the radiation from the central magnetar. (Image by Ken Chen)

Physics

Supernova neutrinos could break physics – if we can make sense of them

Neutrinos produced inside an exploding star could betray exotic particles that would lead to a deeper theory of physics. Will our detectors be ready in time for the next nearby supernova?

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Physics

Is space-time quantum? Six ways to unpick the fabric of the universe

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Space

IceCube detector finds neutrinos from the Milky Way for the first time

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Space

What was the universe's first second like? These particles can tell us

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Physics

Antimatter neutrinos detected from a nuclear reactor 240 km away

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