Nucleosynthesis in 2D Core-Collapse Supernova Long-Term Simulations of 11.2 and 17.0 \(\text{M}_{ \odot }\) Progenitors
Author(s) -
Marius Eichler,
Ko Nakamura,
Tomoya Takiwaki,
Takami Kuroda,
Kei Kotake,
Matthias Hempel,
Rubén M. Cabezón,
M. Liebendörfer,
F.K. Thielemann
Publication year - 2017
Publication title -
proceedings of the 14th international symposium on nuclei in the cosmos (nic2016)
Language(s) - English
Resource type - Conference proceedings
DOI - 10.7566/jpscp.14.020604
Subject(s) - supernova , term (time) , nucleosynthesis , physics , core (optical fiber) , astrophysics , astronomy , optics
We perform detailed nucleosynthesis calculations for two long-term, 2D simulations of core-collapse supernovae. We find that elements are produced up to Ru (Z = 44) and observe abundance patterns that are characteristic of a νp-process. One important characteristic of the long-term simulation is that there is still accretion of matter onto the proto-neutron star and unbinding of matter in some other regions at the time when the simulations stop (around 7s). Dividing the tracer particles into different bins according to their peak temperatures enables us to study and compare the nuclear compositions of these bins for the different simulations
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