
Originally Posted by
Max™
No, it is known that if you violated pauli exclusion, normal matter would take up far less space. It is not known HOW to do that in general.
A quagma state is one in which fermionic rules are not the main operator on the material, cooling from a quagma state is when the baryons begin to behave "normally" as we know them.
This effect generally happens in a broadly random manner, so the odds of any bits of cold degenerate matter would be very low. It would have to be shaped specifically to produce this effect in any significant way.
It is similar to veins of water getting frozen into a block of ice that cooled rapidly. If quagma and not QGP states predominate those energy levels, manipulation of the material could induce it to cool in a specifically designed manner, where the fronts of hadronic condensation collide at a sheet. Any quagma material trapped as the freezing finished would not be able to shed energy normally by freezing into baryonic structures as usual.
The quarks and electrons left over after the rest of the material freezes would not be able to form complete baryons rapidly enough to cool normally, and you should get a secondary release of energy as it all falls into a ground energy state, much like a BEC, or a laser.
It isn't a question of if pauli violated matter would have those properties, it's obvious it would, Dyson showed this is a pretty simple conclusion. The question is could you find any way to violate the exclusion principle, and I have to say no... unless GUT models with quagma condensation are correct. Then it should be possible.