On growth of spinodal instabilities in nuclear matter
arXiv:1501.05785 · doi:10.1103/PhysRevC.91.014605
Abstract
Early growth of density fluctuations of nuclear matter in spinodal region is investigated employing the stochastic mean-field approach. In contrast to the earlier treatments in which only collective modes were included in the calculations, in the present work non-collective modes are also included, thus providing a complete treatment of the density correlation functions. Calculations are carried out for symmetric matter in non-relativistic framework using a semi-classical approximation.
arXiv comment19 pages, 10 figures
References in corpus (15)
- A Stochastic Mean-Field Approach For Nuclear Dynamics
- Spinodal decomposition of low-density asymmetric nuclear matter
- Stochastic quantum dynamics beyond mean-field
- Signals for a Transition from Surface to Bulk Emission in Thermal Multifragmentation
- Evidence for Spinodal Decomposition in Nuclear Multifragmentation
- Fluctuation and dissipation dynamics in fusion reactions from stochastic mean-field approach
- Mass dispersion in transfer reactions with a stochastic mean-field theory
- Quadrupole resonances in unstable oxygen isotopes in time-dependent density-matrix formalism
- On nucleon exchange mechanism in heavy-ion collisions at near-barrier energies
- Symmetry breaking and fluctuations within stochastic mean-field dynamics: importance of initial quantum fluctuations
- Quantal corrections to mean-field dynamics including pairing
- Quantal Effects on Spinodal Instabilities in Charge Asymmetric Nuclear Matter
- Spinodal Instabilities in Nuclear Matter in a Stochastic Relativistic Mean-Field Approach
- Time development of a density perturbation in the unstable nuclear matter
- Analysis of Boltzmann-Langevin Dynamics in Nuclear Matter