We investigate new paths to supermassive black hole formation by considering the general relativistic evolution of a differentially rotating polytrope with a toroidal shape. We find that this polytrope is unstable to nonaxisymmetric modes, which leads to a fragmentation into self-gravitating, collapsing components. In the case of one such fragment, we apply a simplified adaptive mesh refinement technique to follow the evolution to the formation of an apparent horizon centered on the fragment. This is the first study of the onset of nonaxisymmetric dynamical instabilities of supermassive stars in full general relativity
Observational evidence suggests that some very large supermassive black holes (SMBHs) already existe...
We revisit the conditions present in supermassive discs (SMDs) formed by the merger of gas-rich, met...
Context. The formation of supermassive black holes by direct collapse would imply the existence of s...
We investigate new paths to black hole formation by considering the general relativistic evolution o...
We investigate new paths to supermassive black hole formation by considering the general relativisti...
In a recent publication, we have demonstrated that differentially rotating stars admit new channels ...
In a recent publication, we have demonstrated that differentially rotating stars admit new channels ...
We investigate the collapse of differentially rotating supermassive stars (SMSs) by means of 3+1 hyd...
We study the collapse of rapidly rotating supermassive stars that may have formed in the early Unive...
We use numerical simulations to explore whether direct collapse can lead to the formation of superma...
We investigate the gravitational collapse of rapidly rotating relativistic supermassive stars by mea...
We study the gravitational collapse of a rotating supermassive star (SMS) by means of a (3+1) hydrod...
We study the gravitational collapse of a rotating supermassive star (SMS) by means of a (3+1) hydrod...
We use cosmological adaptive mesh refinement code enzo zoom-in simulations to study the long-term ev...
We perform 3+1 general relativistic simulations of rotating core collapse in the context of the coll...
Observational evidence suggests that some very large supermassive black holes (SMBHs) already existe...
We revisit the conditions present in supermassive discs (SMDs) formed by the merger of gas-rich, met...
Context. The formation of supermassive black holes by direct collapse would imply the existence of s...
We investigate new paths to black hole formation by considering the general relativistic evolution o...
We investigate new paths to supermassive black hole formation by considering the general relativisti...
In a recent publication, we have demonstrated that differentially rotating stars admit new channels ...
In a recent publication, we have demonstrated that differentially rotating stars admit new channels ...
We investigate the collapse of differentially rotating supermassive stars (SMSs) by means of 3+1 hyd...
We study the collapse of rapidly rotating supermassive stars that may have formed in the early Unive...
We use numerical simulations to explore whether direct collapse can lead to the formation of superma...
We investigate the gravitational collapse of rapidly rotating relativistic supermassive stars by mea...
We study the gravitational collapse of a rotating supermassive star (SMS) by means of a (3+1) hydrod...
We study the gravitational collapse of a rotating supermassive star (SMS) by means of a (3+1) hydrod...
We use cosmological adaptive mesh refinement code enzo zoom-in simulations to study the long-term ev...
We perform 3+1 general relativistic simulations of rotating core collapse in the context of the coll...
Observational evidence suggests that some very large supermassive black holes (SMBHs) already existe...
We revisit the conditions present in supermassive discs (SMDs) formed by the merger of gas-rich, met...
Context. The formation of supermassive black holes by direct collapse would imply the existence of s...