Improved leading-order lattice Hamiltonians lower the liquid-gas critical temperature of symmetric nuclear matter to 13.50(17)-13.71(19) MeV while improving zero-temperature binding energies and saturation point.
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Lattice EFT calculations find no resonance signature in the tetraneutron ground-state energy, only a weak attraction in the dineutron-dineutron phase shift whose confined energy is close to the experimental low-energy peak.
DRHBc calculations on three candidate nuclei show unique density features in deformed halos and indicate that low-energy dipole response is sensitive to halo wave-function components and deformation.
citing papers explorer
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From binding and saturation to criticality in nuclear matter with lattice effective field theory
Improved leading-order lattice Hamiltonians lower the liquid-gas critical temperature of symmetric nuclear matter to 13.50(17)-13.71(19) MeV while improving zero-temperature binding energies and saturation point.
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Searching for the Tetraneutron Resonance on the Lattice
Lattice EFT calculations find no resonance signature in the tetraneutron ground-state energy, only a weak attraction in the dineutron-dineutron phase shift whose confined energy is close to the experimental low-energy peak.
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Deformed neutron halo nuclei and soft dipole excitations in the 40<A<90 mass region
DRHBc calculations on three candidate nuclei show unique density features in deformed halos and indicate that low-energy dipole response is sensitive to halo wave-function components and deformation.