We present three dimensional hydrodynamic simulations of star-disc systems, focusing on the angular momentum evolution of the central object due to gravitational interactions with the disc. It is found that stellar spin-up is self-limited to approximately half its break-up speed. On long time-scales, we find that in simulations where m=1 is the dominant non-axisymetric mode, there is limited evolution in stellar spin. By contrast, in simulations where m=1 is non-dominant, we observe a monotonic decrease in stellar spin. Our experiments suggest a necessary condition for long-term spin down be that the system does not develop significant m=1 mode, which displaces the star from its center of mass
Context. The spin rate of stars evolves substantially during their lifetime, owing to the evolution ...
ABSTRACT We focused on analysing the role played by protoplanetary disks in the evolution of angular...
International audienceWe present a model for the rotational evolution of a young, solar-mass star in...
We present three dimensional hydrodynamic simulations of star-disc systems, focusing on the angular ...
The spin evolution of classical TTauri stars (CTTS) represents a puzzling problem. Since they are st...
We formulate a general, steady-state model for the torque on a magnetized star from a surrounding ac...
We investigate the evolution of a thin viscous disc surrounding a magnetic star, including the spin-...
Through the angular momentum (AM) transport of the magnetized stellar wind, low-mass main sequence s...
Context. The early pre-main sequence phase during which solar-mass stars are still likely surrounded...
Context. The spin evolution of young protostars, surrounded by an accretion disk, still poses proble...
We investigate how the evolution of the stellar spin rate affects, and is affected by, planets in cl...
After their formation, stars slow down their rotation rates by the removal of angular momentum from ...
Context. The spin rate of stars evolves substantially during their lifetime, owing to the evolution ...
ABSTRACT We focused on analysing the role played by protoplanetary disks in the evolution of angular...
International audienceWe present a model for the rotational evolution of a young, solar-mass star in...
We present three dimensional hydrodynamic simulations of star-disc systems, focusing on the angular ...
The spin evolution of classical TTauri stars (CTTS) represents a puzzling problem. Since they are st...
We formulate a general, steady-state model for the torque on a magnetized star from a surrounding ac...
We investigate the evolution of a thin viscous disc surrounding a magnetic star, including the spin-...
Through the angular momentum (AM) transport of the magnetized stellar wind, low-mass main sequence s...
Context. The early pre-main sequence phase during which solar-mass stars are still likely surrounded...
Context. The spin evolution of young protostars, surrounded by an accretion disk, still poses proble...
We investigate how the evolution of the stellar spin rate affects, and is affected by, planets in cl...
After their formation, stars slow down their rotation rates by the removal of angular momentum from ...
Context. The spin rate of stars evolves substantially during their lifetime, owing to the evolution ...
ABSTRACT We focused on analysing the role played by protoplanetary disks in the evolution of angular...
International audienceWe present a model for the rotational evolution of a young, solar-mass star in...