Binary neutron star merger lead to the formation of a massive, rapidly and differentially rotating neutron star (or a strange star) or to the prompt collapse to a black hole. The maximum mass of a differentially rotating remnant is crucial for distinguishing between these two final objects. We study the effect of differential rotation on the maximum mass of neutron stars (strange stars). We numerically construct stellar models using a highly accurate relativistic code based on a multi-domain spectral method. We find much larger mass increases for strange stars than for neutron stars for the same degree of differential rotation
Numerical simulations of binary neutron star mergers invariably show that, when a long-lived remnant...
We investigate the causal limit of maximum mass for stars in the framework of f(R) gravity. We choos...
The concept of neutron star maximum mass is revisited. In particular we show that when the dynamical...
Binary neutron star merger lead to the formation of a massive, rapidly and differentially rotating n...
International audienceWe present the first fully relativistic numerical calculations of differential...
The merger of binary neutron stars is likely to lead to differentially rotating remnants. In this pa...
International audienceWe study the main astrophysical properties of differentially rotating neutron ...
Rapidly and differentially rotating compact stars are believed to be formed in binary neutron star m...
The recent multi-signals detection from the merging of two neutron stars has definitely sanctioned a...
Determining the differential-rotation law of compact stellar objects produced in binary neutron star...
Neutron stars may experience differential rotation on short, dynamical timescales following extreme ...
The lifetime of the remnant produced by the merger of two neutron stars can provide a wealth of info...
Aims. We explore the implications of a strong first-order phase transition region in the dense matte...
We investigate the implications of rapid rotation corresponding to the frequency of the new pulsar r...
Includes bibliographical references (p. 62-63)Neutron stars have been of interest since Landau propo...
Numerical simulations of binary neutron star mergers invariably show that, when a long-lived remnant...
We investigate the causal limit of maximum mass for stars in the framework of f(R) gravity. We choos...
The concept of neutron star maximum mass is revisited. In particular we show that when the dynamical...
Binary neutron star merger lead to the formation of a massive, rapidly and differentially rotating n...
International audienceWe present the first fully relativistic numerical calculations of differential...
The merger of binary neutron stars is likely to lead to differentially rotating remnants. In this pa...
International audienceWe study the main astrophysical properties of differentially rotating neutron ...
Rapidly and differentially rotating compact stars are believed to be formed in binary neutron star m...
The recent multi-signals detection from the merging of two neutron stars has definitely sanctioned a...
Determining the differential-rotation law of compact stellar objects produced in binary neutron star...
Neutron stars may experience differential rotation on short, dynamical timescales following extreme ...
The lifetime of the remnant produced by the merger of two neutron stars can provide a wealth of info...
Aims. We explore the implications of a strong first-order phase transition region in the dense matte...
We investigate the implications of rapid rotation corresponding to the frequency of the new pulsar r...
Includes bibliographical references (p. 62-63)Neutron stars have been of interest since Landau propo...
Numerical simulations of binary neutron star mergers invariably show that, when a long-lived remnant...
We investigate the causal limit of maximum mass for stars in the framework of f(R) gravity. We choos...
The concept of neutron star maximum mass is revisited. In particular we show that when the dynamical...