Scientists can probe the conditions just after the Big Bang. They can detonate a supernova in a test tube. They can even study black holes. What about neutron stars?
As the hunt for gravitational waves intensifies, a graduate student has an idea as to where the gravitational wave detectors should be looking.
As the hunt for gravitational waves intensifies, a graduate student has an idea as to where the gravitational wave detectors should be looking.
Cosmic GPS would employ pulsing stars, not satellites, as celestial beacons.
For the first time ever, a black hole has been seen being born out of a supernova of a star perhaps 20 times the mass of our sun.
Located about 3,000 light-years away, the neutron star also provides a very direct measure of Einstein's theory of general relativity.
Nothing lights up the cosmos like a supernova. But why does a star explode to begin with?
What's in a neutron star? Well, neutrons, obviously. However, despite the deceptively simple label, the inner workings of neutron stars remain elusive. But that could soon change.
A new type of supernova explosion could explain the origin of the calcium in our teeth and bones.
The fledgling Low Frequency Array (LOFAR) is teaming up with other radio telescopes to probe the beams of intense radiation emitted by pulsars, potentially answering the mystery as to how they are generated.