After decades of one-dimensional nucleosynthesis calculations, the growth of computational resources has meanwhile reached a level, which for the first time allows astrophysicists to consider performing routinely realistic multidimensional nucleosynthesis calculations in explosive and, to some extent, also in non-explosive environments. In the present contribution we attempt to give a short overview of the physical and numerical problems which are encountered in these simulations. In addition, we assess the accuracy that can be currently achieved in the computation of nucleosynthetic yields, using multidimensional simulations of core collapse supernovae as an example
Multidimensional nucleosynthesis studies with hundreds of nuclei linked through thousands of nuclear...
It is now generally agreed that multidimensional, multigroup, radiation hydrodynamics is an indispen...
The nucleosynthesis which occurs in core-collapse supernovae (CCSN) is one of the most important sou...
This overview discusses issues relevant to modeling nucleosynthesis in type II supernovae and implic...
We have investigated the revival of a shock wave by nuclear burning reactions at the central region ...
We present the results of nucleosynthesis calculations based on multi-dimensional (2D and 3D) hydrod...
Simulations of nucleosynthesis in astrophysical environments are at the intersection of nuclear phys...
Most modern astrophysical problems such as supernova simulation require application of state-ofthe- ...
Core-collapse supernovae are some of the most energetic events in the Universe, they herald the birt...
The majority of nuclear reactions in astrophysics involve unstable nuclei which are not fully access...
Observations of nuclear abundances in core-collapse supernova (CCSN) ejecta, highlighted by γ-ray [g...
A key ingredient in any numerical study of supernova explosions is the nuclear network routine that ...
In this thesis, we construct a new hydrodynamical algorithm able of handling general compressible re...
Preliminary results of a new set of stellar evolution and nucleosynthesis calculations for massive s...
Smoothed Particle Hydrodynamics (SPH) is a Lagrangian method widely used for the modelling of a larg...
Multidimensional nucleosynthesis studies with hundreds of nuclei linked through thousands of nuclear...
It is now generally agreed that multidimensional, multigroup, radiation hydrodynamics is an indispen...
The nucleosynthesis which occurs in core-collapse supernovae (CCSN) is one of the most important sou...
This overview discusses issues relevant to modeling nucleosynthesis in type II supernovae and implic...
We have investigated the revival of a shock wave by nuclear burning reactions at the central region ...
We present the results of nucleosynthesis calculations based on multi-dimensional (2D and 3D) hydrod...
Simulations of nucleosynthesis in astrophysical environments are at the intersection of nuclear phys...
Most modern astrophysical problems such as supernova simulation require application of state-ofthe- ...
Core-collapse supernovae are some of the most energetic events in the Universe, they herald the birt...
The majority of nuclear reactions in astrophysics involve unstable nuclei which are not fully access...
Observations of nuclear abundances in core-collapse supernova (CCSN) ejecta, highlighted by γ-ray [g...
A key ingredient in any numerical study of supernova explosions is the nuclear network routine that ...
In this thesis, we construct a new hydrodynamical algorithm able of handling general compressible re...
Preliminary results of a new set of stellar evolution and nucleosynthesis calculations for massive s...
Smoothed Particle Hydrodynamics (SPH) is a Lagrangian method widely used for the modelling of a larg...
Multidimensional nucleosynthesis studies with hundreds of nuclei linked through thousands of nuclear...
It is now generally agreed that multidimensional, multigroup, radiation hydrodynamics is an indispen...
The nucleosynthesis which occurs in core-collapse supernovae (CCSN) is one of the most important sou...