Constraining the High-Density Behavior of Nuclear Symmetry Energy with the Tidal Polarizability of Neutron Stars
arXiv:1210.3402 · doi:10.1103/PhysRevC.87.015806
Abstract
Using a set of model equations of state satisfying the latest constraints from both terrestrial nuclear experiments and astrophysical observations as well as state-of-the-art nuclear many-body calculations of the pure neutron matter equation of state, the tidal polarizability of canonical neutron stars in coalescing binaries is found to be a very sensitive probe of the high-density behavior of nuclear symmetry energy which is among the most uncertain properties of dense neutron-rich nucleonic matter. Moreover, it changes less than by varying various properties of symmetric nuclear matter and symmetry energy around the saturation density within their respective ranges of remaining uncertainty.
6 pages, 5 figures
References in corpus (19)
- Shapiro delay measurement of a two solar mass neutron star
- Tidal Love numbers of neutron stars
- Constraining neutron star tidal Love numbers with gravitational wave detectors
- Relativistic theory of tidal Love numbers
- Neutron-Rich Nuclei in Heaven and Earth
- Astrophysical Measurement of the Equation of State of Neutron Star Matter
- Relativistic effective interaction for nuclei, giant resonances, and neutron stars
- Symmetry energy from elliptic flow in 197Au + 197Au
- Higher-order effects on the incompressibility of isospin asymmetric nuclear matter
- Nuclear symmetry energy and its density slope at normal density extracted from global nucleon optical potentials
- Isospin-dependent properties of asymmetric nuclear matter in relativistic mean-field models
- Analytic modelling of tidal effects in the relativistic inspiral of binary neutron stars
- Equation of state of superfluid neutron matter and the calculation of pairing gap
- Half-Skyrmions, Tensor Forces and Symmetry Energy in Cold Dense Matter
- Generic Constraints on the Relativistic Mean-Field and Skyrme-Hartree-Fock Models from the Pure Neutron Matter Equation of State
- Validating relativistic models of nuclear structure against theoretical, experimental, and observational constraints
- Nuclear equation of state at high baryonic density and compact star constraints
- Isospin dependent properties of asymmetric nuclear matter
- Nuclear Saturation with Low Momentum Interactions
Cited by in corpus (18)
- Towards Understanding Astrophysical Effects of Nuclear Symmetry Energy
- Using Neutron Star Observations to Determine Crust Thicknesses, Moments of Inertia, and Tidal Deformabilities
- Critical Density and Impact of Resonance Formation in Neutron Stars
- Bayesian Inference of the Symmetry Energy of Super-Dense Neutron-Rich Matter from Future Radius Measurements of Massive Neutron Stars
- Implications from GW170817 for -isobar admixed hypernuclear compact stars
- Implications of the mass M of PSR~J0740+6620 on the Equation of State of Super-Dense Neutron-Rich Nuclear Matter
- Tidal deformability of neutron and hyperon star with relativistic mean field equations of state
- Impact of the neutron star crust on the tidal polarizability
- GW170817 implications on the frequency and damping time of f-mode oscillations of neutron stars
- Constraints on the symmetry energy from observational probes of the neutron star crust
- Probing the nuclear equation of state from the existence of a neutron star: the GW190814 puzzle
- Impact of the equation-of-state -- gravity degeneracy on constraining the nuclear symmetry energy from astrophysical observables
- Extraction of the symmetry energy coefficients from the masses differences of isobaric nuclei
- Magnetic susceptibility and magnetization properties of asymmetric nuclear matter under a strong magnetic field
- Constraints on Nuclear Saturation Properties from Terrestrial Experiments and Astrophysical Observations of Neutron Stars
- Thermodynamics of Hot Neutron Stars and Universal Relations
- Neutron Stars and Gravitational Waves: the Key Role of Nuclear Equation of State
- Neutron star deformability with hyperonization in density-dependent relativistic mean-field models