The thermal structure of neutron stars with magnetized envelopes is studied using modern physics input. The relation between the internal ($T_\mathrm{int}$) and local surface temperatures is calculated and fitted by analytic expressions for magnetic field strengths B from 0 to 1016 G and arbitrary inclination of the field lines to the surface. The luminosity of a neutron star with dipole magnetic field is calculated and fitted as a function of B, $T_\mathrm{int}$, stellar mass and radius. In addition, we simulate cooling of neutron stars with magnetized envelopes. In particular, we analyse ultramagnetized envelopes of magnetars and also the effects of the magnetic field of the Vela pulsar on the determination of critical temperatures of neu...
Context. Many thermally emitting, isolated neutron stars have magnetic fields that are larger than ...
Context. The presence of magnetic fields in the crust of neutron stars (NSs) causes a non-sphericall...
Neutron stars host the strongest magnetic fields that we know of in the Universe. Their magnetic fie...
We study the relation between the mean effective surface temperature $\overline{T}_\mathrm{s}$ and ...
Neutron stars cool down during their lifetime through the combination of neutrino emission from the ...
Observations of thermal radiation from neutron stars can potentially provide information about the s...
We investigate the influence of different magnetic field configurations on the temperature distribu...
We continue the study of the effects of a strong magnetic field on the temperature distribution in ...
International audienceAims. We study the relative importance of several recent updates of microphysi...
This work aims at studying how magnetic fields affect the observational properties and the long-term...
5 pages, 3 figures. Invited talk, 12th workshop on Nuclear AstrophysicsWe briefly review recent theo...
A simple and well known model for thermal radiation spectra from a magnetized neutron star is furthe...
International audienceIn this review we discuss self-consistent methods to calculate the global stru...
We study thermal structure and evolution of magnetars as cooling neutron stars with a phenomenologic...
Context. Many thermally emitting, isolated neutron stars have magnetic fields that are larger than ...
Context. The presence of magnetic fields in the crust of neutron stars (NSs) causes a non-sphericall...
Neutron stars host the strongest magnetic fields that we know of in the Universe. Their magnetic fie...
We study the relation between the mean effective surface temperature $\overline{T}_\mathrm{s}$ and ...
Neutron stars cool down during their lifetime through the combination of neutrino emission from the ...
Observations of thermal radiation from neutron stars can potentially provide information about the s...
We investigate the influence of different magnetic field configurations on the temperature distribu...
We continue the study of the effects of a strong magnetic field on the temperature distribution in ...
International audienceAims. We study the relative importance of several recent updates of microphysi...
This work aims at studying how magnetic fields affect the observational properties and the long-term...
5 pages, 3 figures. Invited talk, 12th workshop on Nuclear AstrophysicsWe briefly review recent theo...
A simple and well known model for thermal radiation spectra from a magnetized neutron star is furthe...
International audienceIn this review we discuss self-consistent methods to calculate the global stru...
We study thermal structure and evolution of magnetars as cooling neutron stars with a phenomenologic...
Context. Many thermally emitting, isolated neutron stars have magnetic fields that are larger than ...
Context. The presence of magnetic fields in the crust of neutron stars (NSs) causes a non-sphericall...
Neutron stars host the strongest magnetic fields that we know of in the Universe. Their magnetic fie...