In a toy honeycomb-lattice model of a nucleon, gluon entanglement entropy after a sudden quark removal is dominated by dynamically generated contributions during time evolution.
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Charmonium-nucleon femtoscopy is examined as a probe of the nucleon D-form factor by constructing an effective potential from gravitational form factors fitted to lattice data and matched to HAL QCD results.
Gravitational form factors of pion and kaon are computed in BLFQ; A(Q^2) agrees with lattice QCD while D(Q^2) is enhanced at low Q^2 due to small-x and zero-mode sensitivity in the truncated model.
In a color-spin molecular-dynamics model, neutron-star matter stays clustered into color-singlet multiquark groups, and the strange-light quark coupling moves predicted neutron-star radii.
The scalar gluonic trace form factor G_N(t) is expressed as G_{s,g}(t) + G_{s,q}(t) - σ(t)/M, linking the QCD trace anomaly to DVCS and J/ψ observables.
citing papers explorer
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Gluon Entanglement Entropy inside a Nucleon: A Toy Model
In a toy honeycomb-lattice model of a nucleon, gluon entanglement entropy after a sudden quark removal is dominated by dynamically generated contributions during time evolution.
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Charmonium-nucleon femtoscopy as a possible probe of the nucleon gravitational form factor
Charmonium-nucleon femtoscopy is examined as a probe of the nucleon D-form factor by constructing an effective potential from gravitational form factors fitted to lattice data and matched to HAL QCD results.
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Gravitational form factors of light mesons from Basis Light-Front Quantization
Gravitational form factors of pion and kaon are computed in BLFQ; A(Q^2) agrees with lattice QCD while D(Q^2) is enhanced at low Q^2 due to small-x and zero-mode sensitivity in the truncated model.
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Multiquark clustering in neutron-star matter from color-spin molecular dynamics
In a color-spin molecular-dynamics model, neutron-star matter stays clustered into color-singlet multiquark groups, and the strange-light quark coupling moves predicted neutron-star radii.
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Experimental access to the gluonic origin of the proton mass
The scalar gluonic trace form factor G_N(t) is expressed as G_{s,g}(t) + G_{s,q}(t) - σ(t)/M, linking the QCD trace anomaly to DVCS and J/ψ observables.