The dynamics of self-gravitating globular cluster-like systems, containing N = 10(5) stars, has been simulated for 6 - 10 crossing times. We followed the evolution of three different spherical systems. The first two are quasi-virialized clusters, (with and without the presence, in the centre of mass, of a black hole); the third case regards the initial violent collapse of a spherical system.The dynamics of self-gravitating globular cluster-like systems, containing N = 10(5) stars, has been simulated for 6 - 10 crossing times. We followed the evolution of three different spherical systems. The first two are quasi-virialized clusters, (with and without the presence, in the centre of mass, of a black hole); the third case regards the initial v...
The dynamical evolution of dense clusters of compact stars is studied using direct N-body simulation...
Our current understanding of the stellar initial mass function and of massive star evolution would s...
We study the dynamical evolution of globular clusters using our new two-dimensional Monte Carlo code...
We followed numerically the dynamics of a self-gravitating system of the size of a typical globular ...
Preliminary results are presented about a fully self-consistent N-body simulation of a sample of fou...
Introducing the dragon simulation project, we present directN-body simulations of four massive globu...
A peculiarity of astrophysics with respect to terrestrial physics is the unavoidable presence of sel...
this paper, Sect. 4. 4. Fokker-Planck models remain the principal tool for studying the dynamical ev...
We have performed a set of realistic N-body simulations of the evolution of multi-mass star clusters...
We present results from a suite of eight direct N-body simulations, performed with Nbody6++GPU, repr...
Context. In a previous paper we introduced a new method for simulating collisional gravitational N-b...
Context. In a previous paper we introduced a new method for simulating collisional gravitational N-b...
We report results of collisional N-body simulations aimed at studying the N dependence of the dynami...
We present a new parallel supercomputer implementation of the Monte Carlo method for simulating the ...
Context. In a previous paper we introduced a new method for simulating collisional gravitational N-b...
The dynamical evolution of dense clusters of compact stars is studied using direct N-body simulation...
Our current understanding of the stellar initial mass function and of massive star evolution would s...
We study the dynamical evolution of globular clusters using our new two-dimensional Monte Carlo code...
We followed numerically the dynamics of a self-gravitating system of the size of a typical globular ...
Preliminary results are presented about a fully self-consistent N-body simulation of a sample of fou...
Introducing the dragon simulation project, we present directN-body simulations of four massive globu...
A peculiarity of astrophysics with respect to terrestrial physics is the unavoidable presence of sel...
this paper, Sect. 4. 4. Fokker-Planck models remain the principal tool for studying the dynamical ev...
We have performed a set of realistic N-body simulations of the evolution of multi-mass star clusters...
We present results from a suite of eight direct N-body simulations, performed with Nbody6++GPU, repr...
Context. In a previous paper we introduced a new method for simulating collisional gravitational N-b...
Context. In a previous paper we introduced a new method for simulating collisional gravitational N-b...
We report results of collisional N-body simulations aimed at studying the N dependence of the dynami...
We present a new parallel supercomputer implementation of the Monte Carlo method for simulating the ...
Context. In a previous paper we introduced a new method for simulating collisional gravitational N-b...
The dynamical evolution of dense clusters of compact stars is studied using direct N-body simulation...
Our current understanding of the stellar initial mass function and of massive star evolution would s...
We study the dynamical evolution of globular clusters using our new two-dimensional Monte Carlo code...