Do Quark Stars Contain Hexaquarks and How Do They Affect Proton Decay?

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SUMMARY

The discussion centers on the existence of quark stars within neutron stars and the stability of hexaquarks under extreme conditions. It is established that protons do not decay in neutron stars; instead, they combine with electrons to form neutrons. The existence of hexaquark bosons remains uncertain, with speculation that they may exist at low energy levels in neutron stars, but their properties are not well understood. The interaction between hexaquarks and anti-hexaquarks is also questioned, with no clear conditions identified for their coexistence.

PREREQUISITES
  • Understanding of neutron star formation and structure
  • Familiarity with quark theory and baryon composition
  • Knowledge of particle physics, specifically regarding bosons and quarks
  • Awareness of current research on exotic matter states
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  • Research the properties and existence of hexaquarks in particle physics
  • Explore neutron star collision dynamics and their effects on matter composition
  • Investigate the theoretical implications of anti-hexaquarks in quantum chromodynamics
  • Study current literature on quark stars and their role in astrophysics
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Astrophysicists, particle physicists, and researchers interested in the properties of neutron stars and exotic matter states.

King Solomon
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TL;DR
Proton decay and Hexaquarks and Quark Stars. Anti-Hexaquark; Matter to Antimatter dilemma.
Question:

Is it believed a "quark star" exists within all neutron stars, or just heavier neutron stars.

Do protons actually decay under this pressure (quark soup)?

Are Hexaquark bosons able to remain stable beyond the limit of a proton, or would they decay at the same time of a regular triquark boson?

During a neutron star collision, is there a predicted net gain in Hexaquarks and net loss of standard matter?

Final question: How would anti-hexaquarks react to normal tri-quark matter? Are anti-hexaquarks even likely to interact with the a regular hexaquarks unless forced together (such a darkmatter star). Would we even be able to tell the difference between a Hexaquark star and an Anti-Hexaquark star?
 
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1} Core of neutron stars is a current research question.
2) Protons are long gone. They were compressed with electrons during neutron star formation.

I have no idea what would happen to hexaquarks under these conditions, but I doubt if they could exist.
 
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The interior composition of neutron stars is unclear.
King Solomon said:
Do protons actually decay under this pressure (quark soup)?
They don't decay, they combine with electrons to neutrons.
King Solomon said:
Are Hexaquark bosons able to remain stable beyond the limit of a proton, or would they decay at the same time of a regular triquark boson?
We don't know any hexaquarks (if you don't count the deuteron), it's unclear if they exist and what their properties are if they do. If they are at a low energy they might exist in neutron stars, but why didn't we see them in accelerators then?
King Solomon said:
Final question: How would anti-hexaquarks react to normal tri-quark matter?
I don't see conditions where both could exist at the same time.
such a darkmatter star
What is that supposed to be?
 
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Notice how things get progressively worse from the publication to that article?

There is something that has 6 valence quarks. It might simply be a state of two baryons together, we don't know. That's the publication. The press release then speculates based on that, and the space.com article speculates even more based on the press release. And it's pretty obscure speculation.
And the last step is your post here, because there is no "darkmatter star" in any of these previous steps.
 
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mfb said:
Notice how things get progressively worse from the publication to that article?

There is something that has 6 valence quarks. It might simply be a state of two baryons together, we don't know. That's the publication. The press release then speculates based on that, and the space.com article speculates even more based on the press release. And it's pretty obscure speculation.
And the last step is your post here, because there is no "darkmatter star" in any of these previous steps.

No. I'm not an expert like you, that's why I come here to ask the experts questions.

If us uninformed peons knew the answers, we wouldn't come here to ask.
 
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