Context. The nature of type Ia supernova progenitors is still unclear. The outstanding characteristic of the single-degenerate scenario is that it contains hydrogen in the binary companion of the exploding white dwarf star, which, if mixed into the ejecta of the supernova in large amounts may lead to conflicts with the observations thus ruling out the scenario. Aims. We investigate the effect of the impact of type Ia supernova ejecta on a main sequence companion star of the progenitor system. With a series of simulations we investigate how different parameters of this system affect the amount of hydrogen stripped from the companion by the impact. Methods. The stellar evolution code GARSTEC is used to set up the str...
Hydrogen-rich supernovae, known as Type II (SNe II), are the most common class of explosions observe...
Hydrogen-rich supernovae, known as Type II (SNe II), are the most common class of explosions observe...
We investigate the evolution of Type Ib/c supernova (SN Ib/c) progenitors in close binary systems, u...
Context. The nature of type Ia supernova progenitors is still unclear. The outstanding characterist...
Context. The identity of the progenitor systems of Type Ia supernovae (SNe Ia) is still uncertain. I...
One method of discriminating between the many Type Ia progenitor scenarios is searching for contamin...
Supernovae of both Type I (hydrogen-poor) and Type II (hydrogen-rich) can be expected to occur among...
Context. The single degenerate model is the most widely accepted progenitor model of type Ia superno...
Massive stars that lose their hydrogen-rich envelope down to a few tenths of a solar mass explode as...
Type Ia supernovae (SNe~Ia) are thought to be caused by thermonuclear explosions of carbon-oxygen w...
The single-degenerate model is the most widely accepted progenitor model of Type Ia su-pernovae (SNe...
While it is generally accepted that Type Ia supernovae are the result of the explosion of a carbon-o...
14 pages, 15 figures, resubmitted to ApJ, figure 15 modifiedWhile it is generally accepted that Type...
Context. The progenitors of many core-collapse supernovae (CCSNe) are expected to be in binary syste...
Hydrogen-rich supernovae, known as Type II (SNe II), are the most common class of explosions observe...
Hydrogen-rich supernovae, known as Type II (SNe II), are the most common class of explosions observe...
We investigate the evolution of Type Ib/c supernova (SN Ib/c) progenitors in close binary systems, u...
Context. The nature of type Ia supernova progenitors is still unclear. The outstanding characterist...
Context. The identity of the progenitor systems of Type Ia supernovae (SNe Ia) is still uncertain. I...
One method of discriminating between the many Type Ia progenitor scenarios is searching for contamin...
Supernovae of both Type I (hydrogen-poor) and Type II (hydrogen-rich) can be expected to occur among...
Context. The single degenerate model is the most widely accepted progenitor model of type Ia superno...
Massive stars that lose their hydrogen-rich envelope down to a few tenths of a solar mass explode as...
Type Ia supernovae (SNe~Ia) are thought to be caused by thermonuclear explosions of carbon-oxygen w...
The single-degenerate model is the most widely accepted progenitor model of Type Ia su-pernovae (SNe...
While it is generally accepted that Type Ia supernovae are the result of the explosion of a carbon-o...
14 pages, 15 figures, resubmitted to ApJ, figure 15 modifiedWhile it is generally accepted that Type...
Context. The progenitors of many core-collapse supernovae (CCSNe) are expected to be in binary syste...
Hydrogen-rich supernovae, known as Type II (SNe II), are the most common class of explosions observe...
Hydrogen-rich supernovae, known as Type II (SNe II), are the most common class of explosions observe...
We investigate the evolution of Type Ib/c supernova (SN Ib/c) progenitors in close binary systems, u...