activity
20122018
most citedAmbipolar diffusion in low-mass star formation. I. General comparison with the ideal MHD case

207 citations · 684 across the 8 of their papers we have counts for

collaborators

8 papers

astro-ph.SR2018★ 106 cited

Protostellar birth with ambipolar and ohmic diffusion

Neil Vaytet, Benoît Commerçon, Jacques Masson +2

The transport of angular momentum is capital during the formation of low-mass stars; too little removal and rotation ensures stellar densities are never reached, too much and the a…

astro-ph.GA2016★ 92 cited

A chemical solver to compute molecule and grain abundances and non-ideal MHD resistivities in prestellar core collapse calculations

Pierre Marchand, Jacques Masson, Gilles Chabrier +3

We develop a detailed chemical network relevant to the conditions characteristic of prestellar core collapse. We solve the system of time-dependent differential equations to calcul…

astro-ph.GA2016★ 38 cited

The effect of ambipolar diffusion on low-density molecular ISM filaments

Evangelia Ntormousi, Patrick Hennebelle, Philippe André +1

The filamentary structure of the molecular interstellar medium and the potential link of this morphology to star formation have been brought into focus recently by high resolution…

astro-ph.SR2015★ 207 cited

Ambipolar diffusion in low-mass star formation. I. General comparison with the ideal MHD case

Jacques Masson, Gilles Chabrier, Patrick Hennebelle +2

In this paper, we provide a more accurate description of the evolution of the magnetic flux redistribution during prestellar core collapse by including resistive terms in the magne…

astro-ph.IM2015★ 37 cited

Multigroup radiation hydrodynamics with flux-limited diffusion and adaptive mesh refinement

Matthias González, Neil Vaytet, Benoît Commerçon +1

Radiative transfer plays a key role in the star formation process. Due to a high computational cost, radiation-hydrodynamics simulations performed up to now have mainly been carrie…

astro-ph.SR2013★ 84 cited

Simulations of protostellar collapse using multigroup radiation hydrodynamics. II. The second collapse

N. Vaytet, G. Chabrier, E. Audit +4

Star formation begins with the gravitational collapse of a dense core inside a molecular cloud. As the collapse progresses, the centre of the core begins to heat up as it becomes o…