luchitociencia
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- Nov 10, 2019
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Oh, in other words: pure fantasies.When gravity gets high enough, it exceeds the ability of fundamental particles to maintain separate spaces.
Where such a deluded idea comes from?
It comes from the Pauli Exclusion principle and general relatvity. When a mass greater than the Chandrasekhar limit (2.765×1030 kg, the maximum mass of a white dwarf star) collapses, the gravitational force is sufficient to overcome the degeneracy pressure created by the Pauli exclusion principle and collapse fermionic particles into a common location. Bosons have no problem with colocation.
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Astronomy provides a spectacular demonstration of the effect of the Pauli principle, in the form of white dwarf and neutron stars. In both bodies, the atomic structure is disrupted by extreme pressure, but the stars are held in hydrostatic equilibrium by degeneracy pressure, also known as Fermi pressure. This exotic form of matter is known as degenerate matter. The immense gravitational force of a star's mass is normally held in equilibrium by thermal pressure caused by heat produced in thermonuclear fusion in the star's core. In white dwarfs, which do not undergo nuclear fusion, an opposing force to gravity is provided by electron degeneracy pressure. In neutron stars, subject to even stronger gravitational forces, electrons have merged with protons to form neutrons. Neutrons are capable of producing an even higher degeneracy pressure, neutron degeneracy pressure, albeit over a shorter range. This can stabilize neutron stars from further collapse, but at a smaller size and higher density than a white dwarf. Neutron stars are the most "rigid" objects known; their Young modulus (or more accurately, bulk modulus) is 20 orders of magnitude larger than that of diamond. However, even this enormous rigidity can be overcome by the gravitational field of a massive star or by the pressure of a supernova, leading to the formation of a black hole.[16]:286–287
16) Martin Bojowald (5 November 2012). The Universe: A View from Classical and Quantum Gravity. John Wiley & Sons. ISBN 978-3-527-66769-7.
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Pauli exclusion principle - Wikipedia
en.wikipedia.org
Same Eddington who committed fraud to validate Relativity, same Eddington who was behind the validation of black holes.
Saying that such an extreme point of gravity will cause no motion of particles is exactly the same as you saying you just can jump up from your chair and reach the moon.
Pure imaginations.