The IceCube telescope near the South Pole has received a first glimpse into the core of the galaxy NGC 1068.
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Artículos sobre Neutrinos
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Physicists know a lot about the most fundamental properties of the universe, but they certainly don’t know everything. 2021 was a big year for physics – what was learned and what’s coming next?
A new result from the MicroBooNE neutrino experiment has dashed hopes for a neat resolution to several puzzles for physicists.
The study of neutrinos produced within the Earth’s interior provides a better understanding of the radioactivity of our planet.
A new method suggests we should aim to detect dark matter haloes by tracing galactic gas.
When scientists created the Higgs particle with protons, they needed the 10km-wide Large Hadron Collider. A muon machine could achieve it with a diameter of just 200 metres.
If we want an improved theory of particle physics, understanding neutrino masses is key.
Astronomers are now able to detect a host of signals streaming through the universe. This newfound ability is like gaining new senses and it’s opening the door to understanding the cosmos.
A detector buried under more than a mile of ice in Antarctica has detected a high-energy subatomic neutrino and traced it to its origin, a blazar – a gargantuan black hole more than a billion times more massive than the sun.
A giant detector at the South Pole has observed a neutrino from a black hole in a distant galaxy for the first time.
A particle physicist explains just what this keystone theory includes. After 50 years, it’s the best we’ve got to answer what everything in the universe is made of and how it all holds together.
A new study challenges the established view of what dark matter is.
Deep underground, scientists research subatomic particles from space in a bid to understand the building blocks of our universe.
Deep beneath the Alpine ski slopes, patient scientists are waiting to observe a rare radioactive decay that would make us rewrite the Standard Model of Particle Physics.
Cosmologists are heading back to their chalkboards as the experiments designed to figure out what this unknown 84 percent of our universe actually is come up empty.
The discovery of tiny ripples in space from the violent collision of dense stars could help solve many mysteries – including where the gold in our jewellery comes from.
Razor-sharp, unconventional and fun on the dance floor. A colleague paints a colourful portrait of one of this year’s Nobel Laureates in physics.
The Deep Underground Neutrino Experiment (DUNE) could help unravel the mysteries of antimatter and complete scientists’ next model of the universe.
A new detector could work out what’s causing a heat flow from the Earth’s interior. It may even solve the mystery of what powers the Earth’s magnetic field.
The universe is expanding faster than expected, but we don’t know what’s driving it. Here are a few of the possible explanations, from dark energy to a modification of general relativity.
Principales colaboradores
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Post Doctoral Research Associate, Centre for the Subatomic Structure of Matter, University of Adelaide
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CSIRO Fellow, CSIRO
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Reader (Physics and Astronomy), University of Sussex
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Professor of Astrophysics, Swinburne University of Technology
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Professor of Astrophysics, University of Adelaide
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Postgraduate Research Student in High Energy Astrophysics, University of Adelaide
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Professor of Astrophysics, University of Sydney
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PhD Candidate, Centre for the Subatomic Structure of Matter, University of Adelaide
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Research Fellow in Experimental Particle Physics, The University of Melbourne
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Post-doctoral research fellow, London Research Institute
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Professor of High Energy Physics, The University of Melbourne
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Professor (Physics), University of Southern Queensland
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Senior Lecturer in Particle Physics Informatics, Brunel University London
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Professor of Physics, Head of Department, Lancaster University
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Professor of Physics, University of the Witwatersrand
