Degenerate matter is extremely dense matter with characteristics governed by quantum mechanics. One of the notable traits is that temperature and pressure are independent of one another. Two forms of matter known to exist are electron degenerate matter, which comprises white dwarfs, and neutron degenerate matter, which comprises neutron stars.
A neutron star is primarily composed of densely packed neutrons, which are subatomic particles that carry no electric charge. Formed from the remnants of a supernova explosion, these stars have an incredibly high density, with a mass greater than that of the Sun compressed into a sphere roughly 20 kilometers in diameter. The intense gravitational forces in a neutron star prevent the neutrons from decaying, resulting in a unique state of matter known as "neutron-degenerate matter." Additionally, a neutron star may have a thin outer crust of atomic nuclei and electrons.
None of the above. White dwarfs and the black dwarfs they will become consist of a unique state of matter called electron degenerate matter.
Plasma is the fourth state of matter. Yes, there are several other states of matter in addition to the most familiar states of solid, liquid, and gas. Super-heated, glowing matter (which can be seen in a fire, or in the sun) is in a state called plasma. Liquid helium as it closely approaches absolute zero (minus 273o Celsius) has a superfluid phase which is significantly different from ordinary liquids. Ultra compressed matter in a neutron star is in a state called degenerate matter. And most exotic of all, is the Bose-Einstein condensate, a form of matter in which many atoms can be superimposed upon each other in the same location.
The singularity in a black hole, then comes the material in a neutron star.
Degenerate matter is extremely dense matter with characteristics governed by quantum mechanics. One of the notable traits is that temperature and pressure are independent of one another. Two forms of matter known to exist are electron degenerate matter, which comprises white dwarfs, and neutron degenerate matter, which comprises neutron stars.
ANY star will spin; you can't avoid it from having SOME spin.A "degenerate star" would probably refer to one that is made up of degenerate matter. That can either be a white dwarf, or a neutron star.
degenerate matter would be incompressible. This would not be ordinarily met with, but is considered to be the material of a neutron star. Where, upon the collapse of a giant star, the gravitational forces would collapse all the neutron matter to a solid. Fond subject of sci-fi writers, e.g. Larry Niven (I think) wrote a story with the title Neutron Star, which will give a rough guide to the supposed physics.
degenerate matter would be incompressible. This would not be ordinarily met with, but is considered to be the material of a neutron star. Where, upon the collapse of a giant star, the gravitational forces would collapse all the neutron matter to a solid. Fond subject of sci-fi writers, e.g. Larry Niven (I think) wrote a story with the title Neutron Star, which will give a rough guide to the supposed physics.
A neutron star is primarily composed of densely packed neutrons, which are subatomic particles that carry no electric charge. Formed from the remnants of a supernova explosion, these stars have an incredibly high density, with a mass greater than that of the Sun compressed into a sphere roughly 20 kilometers in diameter. The intense gravitational forces in a neutron star prevent the neutrons from decaying, resulting in a unique state of matter known as "neutron-degenerate matter." Additionally, a neutron star may have a thin outer crust of atomic nuclei and electrons.
We think that they are made of free particles and the cores may be composed of neutron degenerate matter. But we don't know for sure and it's fairly complicated. You can look up neutron stars on wikipedia for a better answer.
Neither. A white dwarf is composed of matter in an entirely different state called electron degenerate matter.
No, the density of a neutron star is much higher than that of a white dwarf. Neutron stars are composed mostly of densely packed neutrons, while white dwarfs are made of electron-degenerate matter. Neutron stars are some of the densest objects in the universe.
There are not crystals in the normal sense. A white dwarf is made of electron degenerate matter, an exotic state of matter not found on Earth.
A neutron star is a degenerate star, it's initial heat will dissipate into outer space and thus it will cool over time.
None of the above. White dwarfs and the black dwarfs they will become consist of a unique state of matter called electron degenerate matter.
No. While most matter on Earth is in one of those three states, not all of it is. A gas that ionized (electrons have broken free of atoms or molecules) enters a fourth state of matter called plasma. Plasma can be found in electrical arcs such as lightning and where substances are heated to extreme temperatures. The sun is plasma. At high temperatures and pressures some substances that are normally liquids or gasses can become supercritical fluids, a state that is intermediate between liquid and gas. At temperatures near absolute zero some materials can from a Bose-Einstein condensate, in which atoms stop acting as individual particles and start acting as a uniform wave. The cores of many dead stars form white dwarfs, which are are composed of electron-degenerate matter, a state thousands of times denser than anything found on Earth. The cores of massive stars may form neutron stars, which are composed of neutron-degenerate matter, which is millions of times denser than electron-degenerate matter.