We use a series of magnetohydrodynamic simulations including both radiative and protostellar outflow feedback to study the environmental variation of the initial mass function. The simulations represent a carefully-controlled experiment whereby we keep all dimensionless parameters of the flow constant except for those related to feedback. We show that radiation feedback suppresses the formation of lower mass objects more effectively as the surface density increases, but this only partially compensates for the decreasing Jeans mass in denser environments. Similarly, we find that protostellar outflows are more effective at suppressing the formation of massive stars in higher surface density environments. The combined effect of these two trend...
The stellar initial mass function (IMF), along with the star formation rate, is one of the fundamen-...
Aims. We present the first simulations of the formation and feedback of massive stars which account ...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
We theoretically investigate the impact of feedback and its metallicity dependence in massive star f...
We perform a sequence of 3D magnetohydrodynamic (MHD) simulations of the outflow-core interaction fo...
Observed variations in the IMF are reviewed with an emphasis on environmental density. The remote fi...
Copyright © 2009 Royal Astronomical SocietyWe investigate the effect of radiative feedback on the st...
The initial mass function (IMF) describes the stellar mass distribution for a population of stars at...
The fragmentation of star-forming interstellar clouds, and the resulting stellar initial mass functi...
We report the results of a series of AMR radiation-hydrodynamic simulations of the collapse of massi...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
We report the results of a series of AMR radiation-hydrodynamic simulations of the collapse of massi...
The fragmentation of star-forming interstellar clouds, and the resulting stellar initial mass functi...
We investigate how the removal of interstellar material by stellar feedback limits the efficiency of...
We present a suite of high-resolution radiation hydrodynamic simulations of a small patch (1 kpc2) o...
The stellar initial mass function (IMF), along with the star formation rate, is one of the fundamen-...
Aims. We present the first simulations of the formation and feedback of massive stars which account ...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
We theoretically investigate the impact of feedback and its metallicity dependence in massive star f...
We perform a sequence of 3D magnetohydrodynamic (MHD) simulations of the outflow-core interaction fo...
Observed variations in the IMF are reviewed with an emphasis on environmental density. The remote fi...
Copyright © 2009 Royal Astronomical SocietyWe investigate the effect of radiative feedback on the st...
The initial mass function (IMF) describes the stellar mass distribution for a population of stars at...
The fragmentation of star-forming interstellar clouds, and the resulting stellar initial mass functi...
We report the results of a series of AMR radiation-hydrodynamic simulations of the collapse of massi...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
We report the results of a series of AMR radiation-hydrodynamic simulations of the collapse of massi...
The fragmentation of star-forming interstellar clouds, and the resulting stellar initial mass functi...
We investigate how the removal of interstellar material by stellar feedback limits the efficiency of...
We present a suite of high-resolution radiation hydrodynamic simulations of a small patch (1 kpc2) o...
The stellar initial mass function (IMF), along with the star formation rate, is one of the fundamen-...
Aims. We present the first simulations of the formation and feedback of massive stars which account ...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...