Testing the Mutually Enhanced Magicity Effect in Nuclear Incompressibility via the Giant Monopole Resonance in the Pb Isotopes
arXiv:1307.4487 · doi:10.1016/j.physletb.2013.08.027
Abstract
Using inelastic -scattering at extremely forward angles, including , the strength distributions of the isoscalar giant monopole resonance (ISGMR) have been measured in the Pb isotopes in order to examine the proposed mutually enhanced magicity (MEM) effect on the nuclear incompressibility. The MEM effect had been suggested as a likely explanation of the "softness" of nuclear incompressibility observed in the ISGMR measurements in the Sn and Cd isotopes. Our experimental results rule out any manifestation of the MEM effect in nuclear incompressibility and leave the question of the softness of the open-shell nuclei unresolved still.
Accepted for publication in Physics Letters B. Very minor changes in text
References in corpus (12)
- Neutron-Rich Nuclei in Heaven and Earth
- Isotopic dependence of the giant monopole resonance in the even-A ^{112-124}Sn isotopes and the asymmetry term in nuclear incompressibility
- Incompressibility of neutron-rich matter
- Isoscalar giant resonances in the Sn nuclei and implications for the asymmetry term in the nuclear-matter incompressibility
- The Giant Monopole Resonance in the Sn Isotopes: Why is Tin so "Fluffy"?
- Why is Tin so soft?
- Giant Monopole Resonance in even-A Cd isotopes, the asymmetry term in nuclear incompressibility, and the "softness" of Sn and Cd nuclei
- Microscopic Study of the Isoscalar Giant Monopole Resonance in Cd, Sn and Pb Isotopes
- Microscopic linear response calculations based on the Skyrme functional plus the pairing contribution
- Giant Monopole Resonances and nuclear incompressibilities studied for the zero-range and separable pairing interactions
- The role of superfluidity in nuclear incompressibilities
- The Giant Monopole Resonance in Pb isotopes
Cited by in corpus (26)
- Building relativistic mean field models for finite nuclei and neutron stars
- The Compression-Mode Giant Resonances and Nuclear Incompressibility
- Nuclear Equation of State from ground and collective excited state properties of nuclei
- Optimizing the relativistic energy density functional with nuclear ground state and collective excitation properties
- Bayesian Inference of the Symmetry Energy and the Neutron Skin in Ca and Pb from CREX and PREX-2
- Extended Skyrme interactions for nuclear matter, finite nuclei and neutron stars
- Isoscalar Giant Monopole, Dipole, and Quadrupole Resonances in Zr and Mo
- Are There Nuclear Structure Effects on the Isoscalar Giant Monopole Resonance and Nuclear Incompressibility near A~90?
- Spreading widths of giant resonances in spherical nuclei: damped transient response
- Extended Skyrme interactions for transport model simulations of heavy-ion collisions
- Compressional-mode resonances in the molybdenum isotopes: Emergence of softness in open-shell nuclei near A=90
- Information and statistics: a new paradigm in theoretical nuclear physics
- Breaking the EOS-Gravity Degeneracy with Masses and Pulsating Frequencies of Neutron Stars
- Nuclear collective dynamics in the lattice Hamiltonian Vlasov method
- Bayesian uncertainty quantification for nuclear matter incompressibility
- Nuclear collective dynamics in transport model with the lattice Hamiltonian method
- Bayesian inference of finite-nuclei observables based on the KIDS model
- Bayesian inference on the isospin splitting of nucleon effective mass from giant resonances in Pb
- Impact of ground-state properties and collective excitations on the Skyrme ansatz: a Bayesian study
- EoS from terrestrial experiments: static and dynamic polarizations of nuclear density
- Random matrix analysis of the monopole strength distribution in Pb
- Differential analysis of incompressibility in neutron-rich nuclei
- Nuclear incompressibility and its enduring impact on fusion cross-section
- Excitation of the isoscalar giant monopole resonance using 6Li inelastic scattering
- Spreading widths of giant monopole resonance in the lead region: Random matrix approach
- Performance of prototype Dual Gain Multilayer Thick GEM with high-intensity heavy-ion beam injections in low-pressure hydrogen gas