Recent studies of dense clumps/cores in a number of regions of low-mass star formation have shown that the mass distribution of these clumps closely resembles the initial mass function (IMF) of field stars. One possible interpretation of these observations is that we are witnessing the fragmentation of the clouds into the IMF, and the observed clumps are bound pre-stellar cores. In this paper, we highlight a potential difficulty in this interpretation, namely that clumps of varying mass are likely to have systematically varying lifetimes. This ‘time-scale’ problem can effectively destroy the similarity between the clump and stellar mass functions, such that a stellar-like clump mass function results in a much steeper stellar IMF. We also di...
Context. Stars form in dense, dusty clumps of molecular clouds, but little is known about ...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
One possible mechanism for the formation of molecular clouds is large-scale colliding flows. In this...
Recent studies of dense clumps/cores in a number of regions of low-mass star formation have shown th...
Context. Stars form in dense, dusty clumps of molecular clouds, but little is known about their orig...
International audienceContext. Stars form in dense, dusty clumps of molecular clouds, but little is ...
In this work, we derive the stellar initial mass function (IMF) from the superposition of mass distr...
The mass function of molecular cloud clumps and cores is widely used to compare the results of numer...
We investigate the mass function of cold, dusty clumps in 11 low- and high-mass star-forming regions...
We have developed a model which describes the co-evolution of the mass function of dense gravitation...
International audienceWe present a simple statistical analysis of recent numerical simulations explo...
Detailed knowledge of the initial distribution of stellar masses at birth (known as the initial mass...
We investigate how different stellar initial mass functions (IMFs) can affect the mass-loss and surv...
Context. Stars form in dense, dusty clumps of molecular clouds, but little is known about ...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
One possible mechanism for the formation of molecular clouds is large-scale colliding flows. In this...
Recent studies of dense clumps/cores in a number of regions of low-mass star formation have shown th...
Context. Stars form in dense, dusty clumps of molecular clouds, but little is known about their orig...
International audienceContext. Stars form in dense, dusty clumps of molecular clouds, but little is ...
In this work, we derive the stellar initial mass function (IMF) from the superposition of mass distr...
The mass function of molecular cloud clumps and cores is widely used to compare the results of numer...
We investigate the mass function of cold, dusty clumps in 11 low- and high-mass star-forming regions...
We have developed a model which describes the co-evolution of the mass function of dense gravitation...
International audienceWe present a simple statistical analysis of recent numerical simulations explo...
Detailed knowledge of the initial distribution of stellar masses at birth (known as the initial mass...
We investigate how different stellar initial mass functions (IMFs) can affect the mass-loss and surv...
Context. Stars form in dense, dusty clumps of molecular clouds, but little is known about ...
We review recent advances in our understanding of the origin of the initial mass function (IMF). We ...
One possible mechanism for the formation of molecular clouds is large-scale colliding flows. In this...