Warm pasta phase in the Thomas-Fermi approximation
arXiv:1010.3644 · doi:10.1103/PhysRevC.82.055807
Abstract
In the present paper, the pasta phase is studied at finite temperatures within a Thomas-Fermi (TF) approach. Relativistic mean field models, both with constant and density-dependent couplings, are used to describe this frustrated system. We compare the present results with previous ones obtained within a phase-coexistence description and conclude that the TF approximation gives rise to a richer inner pasta phase structure and the homogeneous matter appears at higher densities. Finally, the transition density calculated within TF is compared with the results for this quantity obtained with other methods.
Published paper plus Erratum (to be published in PRC) with corrected CP results
References in corpus (13)
- Constraints on the high-density nuclear equation of state from the phenomenology of compact stars and heavy-ion collisions
- The symmetry energy at subnuclear densities and nuclei in neutron star crusts
- Hadron-quark mixed phase in hyperon stars
- Simulation of Transitions between "Pasta" Phases in Dense Matter
- Locating the inner edge of neutron star crust using terrestrial nuclear laboratory data
- The pasta phase within density dependent hadronic models
- Dirac-Brueckner-Hartree-Fock calculations for isospin asymmetric nuclear matter based on improved approximation schemes
- Nuclear matter in the crust of neutron stars derived from realistic NN interactions
- Cluster formation in compact stars: relativistic versus Skyrme models
- Lepton effects on the proto-neutron stars with the hadron-quark mixed phase in the Nambu-Jona-Lasinio model
- Cluster formation in asymmetric nuclear matter: semi-classical and quantal approaches
- particles and the pasta phase
- Dynamical properties of nuclear and stellar matter and the symmetry energy
Cited by in corpus (61)
- Equations of state for supernovae and compact stars
- Neutron star radii and crusts: uncertainties and unified equations of state
- Core-crust transition in neutron stars: predictivity of density developments
- Nuclear equation of state for core-collapse supernova simulations with realistic nuclear forces
- Unified treatment of sub-saturation stellar matter at zero and finite temperature
- Equation of state and thickness of the inner crust of neutron stars
- Improved Treatment of Dark Matter Capture in Neutron Stars
- The Vlasov formalism for extended relativistic mean field models: the crust-core transition and the stellar matter equation of state
- Effects of symmetry energy on equation of state for simulations of core-collapse supernovae and neutron-star mergers
- Neutron skins and neutron stars
- The neutron star inner crust and symmetry energy
- Nuclear Equation of state for Compact Stars and Supernovae
- Effects of the symmetry energy on properties of neutron star crusts near the neutron drip density
- Light clusters, pasta phases and phase transitions in core-collapse supernova matter
- Imprint of the symmetry energy on the inner crust and strangeness content of neutron stars
- Influence of the symmetry energy on nuclear pasta in neutron star crusts
- A Neutron Star is born
- Light clusters and the pasta phase
- Liquid-gas coexistence vs. energy minimization with respect to the density profile in the inhomogeneous inner crust of neutron stars
- Full distribution of clusters with universal couplings and in-medium effects
- Light Clusters and Pasta Phases in Warm and Dense Nuclear Matter
- Effect of strong magnetic fields on the crust-core transition and inner crust of neutron stars
- The pasta phase and its consequences on neutrino opacities
- Correlation of the neutron star crust-core properties with the slope of the symmetry energy and the lead skin thickness
- Domains and defects in nuclear "pasta"
- Phase transitions in Core-Collapse Supernova Matter at sub-saturation densities
- Critical parameters of liquid-gas phase transition in thermal symmetric and asymmetric nuclear matter
- Effect of Inner Crust EoS on Neutron star properties
- Crust-core transition of a neutron star: effects of the symmetry energy and temperature under strong magnetic fields
- Is the magnetic field making the inner crust of neutron stars more heterogeneous?
- Collective excitations in the neutron star inner crust
- Unified neutron star equations of state calibrated to nuclear properties
- Pasta phases within the QMC model
- Structure of ultra-magnetised neutron stars
- Nuclear pasta in hot dense matter and its implications for neutrino scattering
- Landau parameters for asymmetric nuclear matter with a strong magnetic field
- Symmetry energy of hot nuclei in the relativistic Thomas-Fermi approximation
- Estimating magnetar radii with an empirical meta-model
- Quantifying Correlations Between Isovector Observables and the Density Dependence of Nuclear Symmetry Energy away from Saturation Density
- Warm unstable asymmetric nuclear matter: critical properties and the density dependence of the symmetry energy
- Relativistic equation of state at subnuclear densities in the Thomas-Fermi approximation
- Nuclear pasta and symmetry energy in the relativistic point-coupling model
- Effects of finite size and symmetry energy on the phase transition of stellar matter at subnuclear densities
- Application of superconducting-superfluid magnetohydrodynamics to nuclear "pasta" in neutron stars
- Strong magnetic fields and pasta phases revisited
- Crust-core transition of a neutron star: effect of the temperature under strong magnetic fields
- Core-crust transition properties of neutron stars within systematically varied extended relativistic mean-field model
- Parametrization of the surface energy in the ETF approximation
- Nuclear pasta in hot and dense matter and its influence on the equation of state for astrophysical simulations
- Strong magnetic fields: neutron stars with an extended inner crust
- Neutrino diffusion in the pasta phase matter within the Thomas-Fermi approach
- The outer crust of a cold, non-accreting neutron star within the Quark-Meson Coupling (QMC) model
- Critical Properties of Symmetric Nuclear Matter in Low-Density Regime Using Effective-Relativistic Mean Field Formalism
- Analytical mass formula and nuclear surface properties in the ETF approximation
- Critical properties of calibrated relativistic mean-field models for the transition to warm, non-homogeneous nuclear matter
- The phase transition in hot hypernuclei within relativistic Thomas-Fermi approximation
- Pairing effects in nuclear pasta phase within the relativistic Thomas-Fermi formalism
- Neutron star properties: Constraining the nuclear matter EoS
- Inner crust equations of state for CompOSE
- Nuclear Matter and Finite Nuclei: Relativistic Thomas-Fermi Approximation Versus Relativistic Mean-Field Approach
- The Inner Crust and its Structure