activity
20202025
most citedALMA-IMF I -- Investigating the origin of stellar masses: Introduction to the Large Program and first results

95 citations · 270 across the 8 of their papers we have counts for

collaborators

8 papers

astro-ph.GA2025

The factors that influence protostellar multiplicity II. Gas temperature and mass in Perseus with APEX

N. M. Murillo, C. M. Fuchs, D. Harsono +5

Protostellar multiplicity is a common outcome of the star formation process. To fully understand the formation and evolution of these systems, the physical parameters of the molecu…

astro-ph.GA2024★ 3 cited

The factors that influence protostellar multiplicity I: Gas temperature, density, and mass in Perseus with Nobeyama

N. M. Murillo, C. M. Fuchs, D. Harsono +9

Protostellar multiplicity is common at all stages and mass ranges. However, the factors that determine the multiplicity of protostellar systems have not been systematically charact…

astro-ph.SR2023★ 18 cited

The role of magnetic fields in the formation of multiple massive stars

R. Mignon-Risse, M. González, B. Commerçon

(Abridged) Context. Most massive stars are located in multiple stellar systems. Magnetic fields are believed to be essential in the accretion and ejection processes around single m…

astro-ph.GA2021★ 95 cited

ALMA-IMF I -- Investigating the origin of stellar masses: Introduction to the Large Program and first results

F. Motte, S. Bontemps, T. Csengeri +61

The ALMA-IMF Large Program imaged a total noncontiguous area of 53pc2, covering 15 extreme, nearby protoclusters of the Milky Way. They were selected to span relevant early protocl…

astro-ph.SR2021★ 30 cited

Collapse of turbulent massive cores with ambipolar diffusion and hybrid radiative transfer II. Outflows

R. Mignon-Risse, M. González, B. Commerçon

(Abridged) Most massive protostars exhibit bipolar outflows. Nonetheless, there is no consensus regarding the mechanism at the origin of these outflows, nor on the cause of the les…

astro-ph.SR2021★ 49 cited

Collapse of turbulent massive cores with ambipolar diffusion and hybrid radiative transfer I. Accretion and multiplicity

R. Mignon-Risse, M. González, B. Commerçon +1

(Abridged) Context. Massive stars form in magnetized and turbulent environments, and are often located in stellar clusters. Their accretion mechanism, as well as the origin of thei…

astro-ph.GA2020★ 42 cited

A statistical analysis of dust polarization properties in ALMA observations of Class 0 protostellar cores

V. J. M. Le Gouellec, A. J. Maury, V. Guillet +8

Recent observational progress has challenged the dust grain-alignment theories used to explain the polarized dust emission routinely observed in star-forming cores. In an effort to…

astro-ph.IM2020★ 33 cited

A new hybrid radiative transfer method for massive star formation

R. Mignon-Risse, M. González, B. Commerçon +1

Frequency-dependent/hybrid approaches for stellar irradiation are of primary importance in numerical simulations of massive star formation. We seek to compare outflow and accretion…