Novae -The study of the reactive flow
S. A. Glasner, J. W. Truran

TL;DR
This paper reviews the complex reactive flow in classical nova eruptions, emphasizing the thermonuclear runaway process, hydrodynamic instabilities, and nucleosynthesis challenges in modeling these stellar phenomena.
Contribution
It provides a comprehensive overview of the observational facts, theoretical models, and rare breakout scenarios in nova explosions, highlighting current challenges in understanding nucleosynthesis.
Findings
Thermonuclear runaway explains nova eruptions.
Convective mixing lifts processed elements to the surface.
Breakout burning leads to heavy element enrichment.
Abstract
There is a wide consensus in the astrophysics community that the mechanism underlying the observed Classical Nova eruptions is a surface thermonuclear runaway. We start this short review with the main observational facts that lead to the theoretical model of a thermonuclear runaway that takes place in an accreted hydrogen rich envelope placed on top of a cool degenerate core of a white dwarf. According to the theory, the accreted envelope becomes unstable to convection days to weeks prior to the runaway. During the extreme stages of the runaway itself, when the burning is most efficient, the envelope is fully convective. Therefore, the elements processed under such extreme conditions are lifted to the outermost regions of the star. A significant fraction of the envelope is ejected during the outburst. The complicated combination of hydrodynamic instabilities and explosive hydrogen…
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