Magneto-thermal evolutionary models are fundamental to explaining the phenomenological diversity of the different classes of neutron stars (NS) that compose the NS zoo. Although in the past decade the 2D magneto-thermal codes have been able to describe the main features of the cooling of highly magnetized NSs (see Pons & Viganò 2019 for a review), we know that to account for the non-axisymmetric modes arising from the magnetic field evolution (even for axisymmetric initial conditions) a 3D model is needed. Moreover, the thermal evolution in presence of a non-axisymmetric magnetic field leads to the formation of inhomogeneities in the NS surface temperature (e.g. hot spots), which can in principle explain the pulsed thermal emission often ...
The defining trait of magnetars, the most strongly magnetized neutron stars (NSs), is their transien...
We study the thermal evolution of axisymmetric rotating neutron stars in full general relativity. To...
Neutron stars host the strongest magnetic fields that we know of in the Universe. Their magnetic fie...
Magneto-thermal evolutionary models are fundamental to explaining the phenomenological diversity of ...
The long-term evolution of the internal, strong magnetic fields of neutron stars needs a specific nu...
The long-term evolution of the internal, strong magnetic fields of neutron stars needs a specific nu...
Observations of magnetars and some of the high magnetic field pulsars have shown that their thermal ...
Context. The presence of magnetic fields in the crust of neutron stars (NSs) causes a non-sphericall...
The strong magnetic field of neutron stars is intimately coupled to the observed temperature and spe...
The defining trait of magnetars, the most strongly magnetized neutron stars (NSs), is their transien...
Context. Many thermally emitting, isolated neutron stars have magnetic fields that are larger than ...
X-ray emission from the surface of isolated neutron stars (NSs) has been now observed in a variety o...
This work aims at studying how magnetic fields affect the observational properties and the long-term...
Simulating the long-term evolution of temperature and magnetic fields in neutron stars is a major ef...
Aims. We study the relative importance of several recent updates of microphysics input to the neutro...
The defining trait of magnetars, the most strongly magnetized neutron stars (NSs), is their transien...
We study the thermal evolution of axisymmetric rotating neutron stars in full general relativity. To...
Neutron stars host the strongest magnetic fields that we know of in the Universe. Their magnetic fie...
Magneto-thermal evolutionary models are fundamental to explaining the phenomenological diversity of ...
The long-term evolution of the internal, strong magnetic fields of neutron stars needs a specific nu...
The long-term evolution of the internal, strong magnetic fields of neutron stars needs a specific nu...
Observations of magnetars and some of the high magnetic field pulsars have shown that their thermal ...
Context. The presence of magnetic fields in the crust of neutron stars (NSs) causes a non-sphericall...
The strong magnetic field of neutron stars is intimately coupled to the observed temperature and spe...
The defining trait of magnetars, the most strongly magnetized neutron stars (NSs), is their transien...
Context. Many thermally emitting, isolated neutron stars have magnetic fields that are larger than ...
X-ray emission from the surface of isolated neutron stars (NSs) has been now observed in a variety o...
This work aims at studying how magnetic fields affect the observational properties and the long-term...
Simulating the long-term evolution of temperature and magnetic fields in neutron stars is a major ef...
Aims. We study the relative importance of several recent updates of microphysics input to the neutro...
The defining trait of magnetars, the most strongly magnetized neutron stars (NSs), is their transien...
We study the thermal evolution of axisymmetric rotating neutron stars in full general relativity. To...
Neutron stars host the strongest magnetic fields that we know of in the Universe. Their magnetic fie...