We use our Monte Carlo radiative transfer code to study non-embedded prestellar cores and cores that are embedded at the centre of a molecular cloud. Our study indicates that the temperature inside embedded cores is lower than in isolated non-embedded cores, and generally less than 12 K, even when the cores are surrounded by an ambient cloud of small visual extinction (Av ∼ 5). Our study shows that the best wavelength region to observe embedded cores is between 400 and 500 μm, where the core is quite distinct from the background. We also predict that very sensitive observations (∼1–3 MJy sr−1) at 170–200 μm can be used to estimate how deeply a core is embedded in its parent molecular cloud. Finally, we present preliminary results of asymmet...
In a previous paper, we identified cores within infrared dark clouds. We regarded those without embe...
Context.The study of pre-stellar cores (PSCs) suffers from a lack of undepleted species to trace th...
Molecular line observations of starless (prestellar) cores combined with a chemical evolution modeli...
We use our Monte Carlo radiative transfer code to study non-embedded prestellar cores and cores that...
We use our Monte Carlo radiative transfer code to study non-embedded prestellar cores and cores that...
We will present radiative transfer calculations of non-embedded and embedded prestellar cores perfor...
We implement a Monte Carlo radiative transfer method, that uses a large number of monochromatic lumi...
We present 2D Monte Carlo radiative transfer simulations of prestellar cores. We consider two types ...
We present 2D Monte Carlo radiative transfer simulations of flattened prestellar cores. We argue the...
We present the results of a three-dimensional Monte Carlo radiative transfer code for starless molec...
International audienceWe investigate the uncertainties affecting the temperature profiles of dense c...
International audienceContext. Lacking a paradigm for the onset of star formation, it is important t...
Context. Lacking a paradigm for the onset of star formation, it is important to derive bas...
In a previous paper, we identified cores within infrared dark clouds. We regarded those without embe...
Context.The study of pre-stellar cores (PSCs) suffers from a lack of undepleted species to trace th...
Molecular line observations of starless (prestellar) cores combined with a chemical evolution modeli...
We use our Monte Carlo radiative transfer code to study non-embedded prestellar cores and cores that...
We use our Monte Carlo radiative transfer code to study non-embedded prestellar cores and cores that...
We will present radiative transfer calculations of non-embedded and embedded prestellar cores perfor...
We implement a Monte Carlo radiative transfer method, that uses a large number of monochromatic lumi...
We present 2D Monte Carlo radiative transfer simulations of prestellar cores. We consider two types ...
We present 2D Monte Carlo radiative transfer simulations of flattened prestellar cores. We argue the...
We present the results of a three-dimensional Monte Carlo radiative transfer code for starless molec...
International audienceWe investigate the uncertainties affecting the temperature profiles of dense c...
International audienceContext. Lacking a paradigm for the onset of star formation, it is important t...
Context. Lacking a paradigm for the onset of star formation, it is important to derive bas...
In a previous paper, we identified cores within infrared dark clouds. We regarded those without embe...
Context.The study of pre-stellar cores (PSCs) suffers from a lack of undepleted species to trace th...
Molecular line observations of starless (prestellar) cores combined with a chemical evolution modeli...