A quantum framework for heavy-quark spin evolution in heavy-ion collisions yields analytic polarization solutions, fitted to ALICE D*+ data to extract depolarization strength and estimate Lambda_c polarization plus elliptic harmonics.
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The paper critically examines the origins of common recoil-order approximations in beta decay form factor expansions and identifies open questions for ab initio nuclear theory.
Astrophysical S-factor data constrain variations in the electromagnetic fine-structure constant to |δ α/α| ≤ 0.0002 in radiative alpha capture on carbon-12.
A review of parity-doublet models in effective field theory that accommodate a chirally invariant mass m0 to describe baryons across vacuum, nuclear, and astrophysical densities.
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Quantum spin dynamics of heavy quarks and polarization observables in relativistic heavy-ion collisions
A quantum framework for heavy-quark spin evolution in heavy-ion collisions yields analytic polarization solutions, fitted to ALICE D*+ data to extract depolarization strength and estimate Lambda_c polarization plus elliptic harmonics.
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The form factor expansion in the precision $\beta$ decay era
The paper critically examines the origins of common recoil-order approximations in beta decay form factor expansions and identifies open questions for ab initio nuclear theory.
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Fine-tunings in radiative $\alpha$-particle capture on $^{12}$C at astrophysical energies
Astrophysical S-factor data constrain variations in the electromagnetic fine-structure constant to |δ α/α| ≤ 0.0002 in radiative alpha capture on carbon-12.
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Chiral, parity-doublet, effective-Lagrangian mean-field theories for nuclear and astrophysical phenomenology
A review of parity-doublet models in effective field theory that accommodate a chirally invariant mass m0 to describe baryons across vacuum, nuclear, and astrophysical densities.