Nucleosynthesis simulations for a wide range of nuclear production sites from NuGrid

F. Herwig, M. Bennett, S. Diehl, C. Fryer, R. Hirschi, A. Hungerford, G. Magkotsios, M. Pignatari, G. Rockefeller, F. Timmes, Patrick Young The NuGrid Collaboration, Los Alamos National Laboratory, A. S. University, Keele University, U. Victoria, U. N. Dame
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引用次数: 11

Abstract

Simulations of nucleosynthesis in astrophysical environments are at the intersection of nuclear physics reaction rate research and astrophysical applications, for example in the area of galactic chemical evolution or near-field cosmology. Unfortunately, at present the available yields for such applications are based on heterogeneous assumptions between the various contributing nuclear production sites, both in terms of modeling the thermodynamic environment itself as well as the choice of specifc nuclear reaction rates and compilations. On the other side, new nuclear reaction rate determinations are often taking a long time to be included in astrophysical applications. The NuGrid project addresses these issues by providing a set of codes and a framework in which these codes interact. In this contribution we describe the motivation, goals and first results of the NuGrid project. At the core is a new and evolving post-processing nuclesoynthesis code (PPN) that can follow quiescent and explosive nucleosynthesis following multi-zone 1D-stellar evolution as well as multi-zone hydrodynamic input, including explosions. First results are available in the areas of AGB and massive stars.
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来自NuGrid的大范围核生产场所的核合成模拟
天体物理环境中的核合成模拟是核物理反应速率研究和天体物理应用的交叉领域,例如在星系化学演化或近场宇宙学领域。不幸的是,就热力学环境本身的建模以及特定核反应速率和汇编的选择而言,目前这种应用的可用产量是基于不同核生产地点之间的异质假设。另一方面,新的核反应速率测定通常需要很长时间才能纳入天体物理应用。NuGrid项目通过提供一组代码和这些代码相互作用的框架来解决这些问题。在这篇文章中,我们描述了NuGrid项目的动机、目标和初步成果。核心是一个新的和不断发展的后处理核合成代码(PPN),它可以在多区域1d恒星演化以及多区域流体动力输入(包括爆炸)后进行静态和爆炸性核合成。第一个结果是在AGB和大质量恒星区域。
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