activity
20032026
most citedMagnetic Field Generation in Collisionless Shocks; Pattern Growth and Transport

233 citations · 3.7k across the 79 of their papers we have counts for

collaborators
Showing astro-ph.SRShow all

26 papers · 1 filter

astro-ph.SR2025

Preferential accretion of binary stars

Daniel Dalsgaard, Michael Kuffmeier, Troels Haugbølle

The attracting properties of gravity enable matter present in cores to collapse into stars with seven orders of magnitude change in space and time making modelling of star formatio…

astro-ph.SR2024★ 19 cited

Constraints on the (re-)orientation of star-disk systems through infall

M. Kuffmeier, J. E. Pineda, D. Segura-Cox +1

It has been consensus that star-disk systems accrete most of their mass and angular momentum during the collapse of a prestellar core, such that the rotational direction of a syste…

astro-ph.SR2024★ 11 cited

Origin and Evolution of Angular Momentum of Class II Disks

Veli-Matti Pelkonen, Paolo Padoan, Mika Juvela +2

Context: While class II pre-main-sequence (PMS) stars have already accreted most of their mass, the continued inflow of fresh material via Bondi-Hoyle accretion acts as an addition…

astro-ph.SR2023

Simulated Analogues I: apparent and physical evolution of young binary protostellar systems

Vito Tuhtan, Rami Al-Belmpeisi, Mikkel Bregning Christensen +2

Protostellar binaries harbour complex environment morphologies. Observations represent a snapshot in time, and projection and optical depth effects impair our ability to interpret…

astro-ph.SR2023★ 1 cited

Rejuvenating infall: a crucial yet overlooked source of mass and angular momentum

M. Kuffmeier, S. S. Jensen, T. Haugbølle

MHD models and the observation of accretion streamers confirmed that protostars can undergo late accretion events after the initial collapse phase. To provide better constraints, w…

astro-ph.SR2020★ 52 cited

From the CMF to the IMF: Beyond the Core-Collapse Model

V. -M. Pelkonen, P. Padoan, T. Haugbølle +1

Observations have indicated that the prestellar core mass function (CMF) is similar to the stellar initial mass function (IMF), except for an offset towards larger masses. This has…