Context. Light elements and nitrogen surface abundances together can constrain the mixing efficiencies in massive stars on the main sequence, because moderate mixing in the surface layers leads to depletion of light elements but only later to enrichment in nitrogen. Aims. We want to test the rotational mixing prescriptions included in the Geneva stellar evolution code (GENEC) by following the evolution of surface abundances of light isotopes in massive stars. Methods. The GENEC is a 1D code containing sophisticated prescriptions for rotational mixing. We implemented an extended reaction network into this code including the light elements Li, Be, and B, which allowed us to perform calculations testing the rotation-induced mix...
Context. Theoretically, rotation-induced chemical mixing in massive stars has far reaching evolution...
International audienceContext. When modelling stars with masses higher than 1.2 M⊙ with no observed ...
Context. Theoretically, rotation-induced chemical mixing in massive stars has far reaching evolution...
Context. Light elements and nitrogen surface abundances together can constrain the mixing efficienci...
The treatment of mixing is still one of the major uncertainties in stellar evolution models. One ope...
We use our new population synthesis code BONNFIRES to test how surface abundances predicted by rotat...
Context. Rotational mixing in massive stars is a widely applied concept, with far-reaching consequen...
Massive stars can be considered as cosmic engines. With their high luminosities, strong stellar wind...
Rotation has become an important element in evolutionary models of massive stars, specifically via t...
Models of rotating single stars can successfully account for a wide variety of observed stellar phen...
Aims. Recent observations have challenged our understanding of rotational mixing in massive stars by...
Context. Rotational mixing in massive stars is a widely applied concept, with far-reaching consequen...
Models of rotating single stars can successfully account for a wide variety of observed stellar phe...
© ESO, 2017. Context. Theoretically, rotation-induced chemical mixing in massive stars has far reac...
International audienceContext. Massive star evolution remains only partly constrained. In particular...
Context. Theoretically, rotation-induced chemical mixing in massive stars has far reaching evolution...
International audienceContext. When modelling stars with masses higher than 1.2 M⊙ with no observed ...
Context. Theoretically, rotation-induced chemical mixing in massive stars has far reaching evolution...
Context. Light elements and nitrogen surface abundances together can constrain the mixing efficienci...
The treatment of mixing is still one of the major uncertainties in stellar evolution models. One ope...
We use our new population synthesis code BONNFIRES to test how surface abundances predicted by rotat...
Context. Rotational mixing in massive stars is a widely applied concept, with far-reaching consequen...
Massive stars can be considered as cosmic engines. With their high luminosities, strong stellar wind...
Rotation has become an important element in evolutionary models of massive stars, specifically via t...
Models of rotating single stars can successfully account for a wide variety of observed stellar phen...
Aims. Recent observations have challenged our understanding of rotational mixing in massive stars by...
Context. Rotational mixing in massive stars is a widely applied concept, with far-reaching consequen...
Models of rotating single stars can successfully account for a wide variety of observed stellar phe...
© ESO, 2017. Context. Theoretically, rotation-induced chemical mixing in massive stars has far reac...
International audienceContext. Massive star evolution remains only partly constrained. In particular...
Context. Theoretically, rotation-induced chemical mixing in massive stars has far reaching evolution...
International audienceContext. When modelling stars with masses higher than 1.2 M⊙ with no observed ...
Context. Theoretically, rotation-induced chemical mixing in massive stars has far reaching evolution...