"Burning Walls" May Stop Black Hole Formation
KentuckyFC writes "Black holes are thought to form when a star greater than 4 times the mass of the Sun explodes in a supernova and then collapses. The force of this collapse is so great that no known force can stop it. In less massive stars, the collapse cannot overcome so-called neutron degeneracy, the force that stops neutrons from being squashed together. Now a Russian physicist says another effect may be involved. He points out that quantum chromodynamics predicts that when neutrons are squashed together, matter undergoes a phase transition into "subhadronic" matter. This is very different from ordinary matter. In subhadronic form, space is essentially empty. So the phase change creates a sudden reduction in pressure, forcing any ordinary matter in the star to implode into this new vacuum. The result is a massive increase in temperature of this matter that creates a "burning wall" within the supernova. And it is this burning wall that stops the formation of a black hole, not just the degeneracy pressure of neutrons. This should lead to much greater energies inside a supernova than had been thought possible until now. And that's important because it could explain the formation of high energy gamma ray bursts that have long puzzled astrophysicists."
I never like when scientists can't explain a major aspect of something like a black hole. They have models/predictions etc., but there are these little pieces that are missing.
Then someone comes along with an elegant solution that fits perfectly into the existing theory/model/design and suddenly all these unexplained pieces make perfect sense.
That is what science is about. Revelation based on fact, not faith. At the end of the day I think it's a lot more rewarding, although a lot harder to come by.
That's exactly what we will do. This hypothesis will be quantified into making predictions about what we will see from supernovae and gamma-ray bursts (and perhaps other events). We will then plan and conduct observations of these events and see if the predictions of this hypothesis are consistent with the new data. A lot of interesting ideas like this come out but then stall for a while as people try translate qualitative ideas into quantitative predictions. Once that happens we can go out and test them.
It does, however, require a bit more than being one that "sounds like something invented by a writer for a Japanese cartoon series."
That's where you set off a bunch of supernova with different intitial conditions and compare the results with theory?
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