Timing observations of rapidly rotating neutron stars revealed a great number of glitches, observed from both canonical radio pulsars and magnetars. Among them, 76 glitches have shown exponential relaxation(s) with characteristic decay times ranging from several days to a few months, followed by a more gradual recovery. Glitches displaying exponential relaxation with single or multiple decay time constants are analysed in terms of a model based on the interaction of the vortex lines with the toroidal arrangement of flux tubes in the outer core of the neutron star. Model results agree with the observed time-scales in general. Thus, the glitch phenomenon can be used to deduce valuable information about neutron star structure, in particular o...
Pinning of superfluid vortices is predicted to prevail throughout much of a neu-tron star. Based on ...
Many radio pulsars exhibit glitches wherein the star\u27s spin rate increases fractionally by ~10-10...
© 2016 The Authors Published by Oxford University Press on behalf of the Royal Astronomical Society....
Neutron stars are the most compact known stars; their cores are of higher density than an atomic nuc...
We present a comprehensive reevaluation of eight of the nine glitches observed to date from the Vela...
We present a comprehensive reevaluation of eight of the nine glitches observed to date from the Vela...
Glitches, sudden spin-up of pulsars with subsequent recovery, provide us with a unique opportunity ...
Large pulsar glitches seem to be common to all radio pulsars and to exhibit a universal behaviour co...
As pulsars lose energy, primarily in the form of magnetic dipole radiation, their rotation slows dow...
Magnetars are neutron stars showing dramatic X-ray and soft γ-ray outbursting behaviour that is thou...
Providing a link between magnetars and radio pulsars, high-magnetic-field neutron stars are ideal ta...
© 2020 George Alec William HowittGlitches are sudden jumps in the spin frequency of pulsars that occ...
The relaxation observed by McCulloch, Hamilton, & Deshpande (1993) following the ninth observed glit...
We present a statistical study of the glitch population and the behaviour of the glitch activity acr...
Abstract. One of the most remarkable properties of radio pulsars is their rotational stability which...
Pinning of superfluid vortices is predicted to prevail throughout much of a neu-tron star. Based on ...
Many radio pulsars exhibit glitches wherein the star\u27s spin rate increases fractionally by ~10-10...
© 2016 The Authors Published by Oxford University Press on behalf of the Royal Astronomical Society....
Neutron stars are the most compact known stars; their cores are of higher density than an atomic nuc...
We present a comprehensive reevaluation of eight of the nine glitches observed to date from the Vela...
We present a comprehensive reevaluation of eight of the nine glitches observed to date from the Vela...
Glitches, sudden spin-up of pulsars with subsequent recovery, provide us with a unique opportunity ...
Large pulsar glitches seem to be common to all radio pulsars and to exhibit a universal behaviour co...
As pulsars lose energy, primarily in the form of magnetic dipole radiation, their rotation slows dow...
Magnetars are neutron stars showing dramatic X-ray and soft γ-ray outbursting behaviour that is thou...
Providing a link between magnetars and radio pulsars, high-magnetic-field neutron stars are ideal ta...
© 2020 George Alec William HowittGlitches are sudden jumps in the spin frequency of pulsars that occ...
The relaxation observed by McCulloch, Hamilton, & Deshpande (1993) following the ninth observed glit...
We present a statistical study of the glitch population and the behaviour of the glitch activity acr...
Abstract. One of the most remarkable properties of radio pulsars is their rotational stability which...
Pinning of superfluid vortices is predicted to prevail throughout much of a neu-tron star. Based on ...
Many radio pulsars exhibit glitches wherein the star\u27s spin rate increases fractionally by ~10-10...
© 2016 The Authors Published by Oxford University Press on behalf of the Royal Astronomical Society....