Astronomers are getting ready to say good bye to the radio emission from a neutron star merger – one of the most energetic events in the universe – that was detected last year.
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Pulsars are rapidly rotating neutron stars and some of them are know to have a "glitch", and astronomers have captured one as it hapened.
From a slow hum to a chirp or a bleep, what is that sound you hear whenever there's a new detection of gravitational waves?
Cosmologists who were hoping to be the next Einstein have had to bin their theories.
By figuring out fission, physicists were able to split uranium atoms and release massive amounts of energy. This Manhattan Project work paved the way both for atomic bombs and nuclear power reactors.
Until the recent observation of merging neutron stars, how the heaviest elements come to be was a mystery. But their fingerprints are all over this cosmic collision.
A LIGO team member describes how the detection of a gravitational wave from a new source – merging neutron stars – vaults astronomy into a new era of 'multi-messenger' observations.
Astronomers have finally confirmed the source of the latest detected gravitational waves was the collission of a pair of neutron stars, what they'd been searching for all along.
All it took was a single email alert to send the world's astronomers searching for the source of the latest gravitational wave detected.
Efforts to see the afterglow from a neutron star merger were nearly thwarted by bad weather and a cyber attack on an Australian telescope.
The gravitational wave itself is the least exciting part of the announcement from LIGO and Virgo. Observing this new source answers many longstanding questions.
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.
Studying mysterious neutron stars could uncover the secrets of exotic physics – and a way to navigate the stars.
State of the art detectors have found another signal from a pair of collapsing black holes – the consequences could be momentous.
A new study has failed to find evidence of gravitational waves, but that doesn't mean Einstein was wrong about their existence.
They're are the overachievers of the universe: incredibly dense but very small when compared to others stars. So how much do we know about the extreme behaviour of neutron stars?
Magnetars are stars that are incredibly dense, rapidly spinning, amazingly hot and – as their name suggests – are the most magnetic objects known in the universe. The magnetic field on the surface of a…
A planet has been found in our Milky Way galaxy that may be made entirely of diamond. As reported in Science today, an international astronomy team led by Swinburne University’s Matthew Bailes, has discovered…
Top contributors
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Associate Professor and ARC Future Fellow, University of Sydney
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PhD; Senior Lecturer in Astrophysics, Monash University
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Emeritus Professor, ARC Centre of Excellence for Gravitational Wave Discovery, OzGrav, University of Western Australia
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Associate professor of Physics, University of Wisconsin-Milwaukee
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Director, Dunlap Institute for Astronomy and Astrophysics, University of Toronto
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Associate professor, University of Western Australia
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Lecturer and ARC Future Fellow, Monash University
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Research Fellow, International Centre for Radio Astronomy Research, Curtin University, Swinburne University of Technology
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ARC DECRA Research Fellow in Astrophysics, University of Western Australia
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Tanya Hill is a Friend of The Conversation.
Honorary Fellow of the University of Melbourne and Senior Curator (Astronomy), Museums Victoria
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Professor of Gravitational Astrophysics and Cosmology, University of Glasgow
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Reader in Astrophysics, UCL
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Assistant Professor of Physics, Pennsylvania State University
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Professor of Astrophysics, University of Glasgow
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Associate Professor of Nuclear Physics, Michigan State University
