The internal entanglement entropy of a proton is similar in magnitude to the Gibbs entropy of the QGP droplet from which the proton formed.
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3 Pith papers cite this work. Polarity classification is still indexing.
3
Pith papers citing it
fields
hep-ph 3years
2026 3verdicts
UNVERDICTED 3representative citing papers
In light-front holographic QCD the nucleon gravitational form factor B_N(t) vanishes exactly in the symmetric limit due to an antisymmetric longitudinal factor and remains strongly suppressed for realistic nucleon wave functions, explaining its observed smallness.
Quarks inside the proton experience an attractive force that stays constant with distance, supplying direct evidence for confinement.
citing papers explorer
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Looking at the Entropy in a Proton through a QGP Lens
The internal entanglement entropy of a proton is similar in magnitude to the Gibbs entropy of the QGP droplet from which the proton formed.
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Origin of the nucleon gravitational form factor $B_N(t)$: Exposition in light-front holographic QCD
In light-front holographic QCD the nucleon gravitational form factor B_N(t) vanishes exactly in the symmetric limit due to an antisymmetric longitudinal factor and remains strongly suppressed for realistic nucleon wave functions, explaining its observed smallness.
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Evidence for Quark Confinement in the Proton
Quarks inside the proton experience an attractive force that stays constant with distance, supplying direct evidence for confinement.