The Dawes Review 2: Nucleosynthesis and Stellar Yields of Low-
and Intermediate-Mass Single Stars - Amanda I. Karakasa and John
C. Lattanzio
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Article Contents
- ABSTRACT
- 1.INTRODUCTION
- 1.1.Definitions and Overview of
Evolution
- 1.1.1.The Lowest Mass Stars
- 1.1.2.The Low Mass Stars
- 1.1.3.The Intermediate Mass
Stars
- 1.1.4.The Lower Intermediate
Mass Stars
- 1.1.5.The Middle Intermediate
Mass Stars
- 1.1.6.The Massive
Intermediate Mass Stars
- 1.1.7.The Massive Stars
- 1.2.Stellar Yield Calculations
- 2.EVOLUTION AND NUCLEOSYNTHESIS PRIOR
TO THE ASYMPTOTIC GIANT BRANCH
- 2.1.Illustrative Examples
- 2.2.First Dredge-Up
- 2.2.1.Abundance Changes due
to FDU
- 2.2.2.The Onset of FDU
- 2.2.3.The Bump in the
Luminosity Function
- 2.2.4.The Need for
Extra-Mixing
- 2.2.5.The 3He
problem
- 2.3.Non-convective mixing
processes on the First Giant Branch
- 2.3.1.The onset of extra
mixing
- 2.3.2.Rotation
- 2.3.3.Parameterised models
- 2.3.4.Thermohaline mixing
- 2.3.5.Magnetic Fields and
Other Mechanisms
- 2.4.Lithium
- 2.5.Second Dredge-Up
- 2.6.Variations at low
metallicity
- 2.6.1.Curtailing First
Dredge-Up
- 2.6.2.The Core Helium Flash
- 2.6.3.Proton Ingestion
Episodes
- 3.EVOLUTION AND NUCLEOSYNTHESIS DURING
THE ASYMPTOTIC GIANT BRANCH
- 3.1.The thermally-pulsing
Asymptotic Giant Branch
- 3.2.Hot bottom burning
- 3.2.1.Dredge-up, HBB and the
Brightest C Stars
- 3.2.2.The Core-Mass vs
Luminosity Relation
- 3.3.Third dredge up
- 3.3.1.The Dredge-Up Parameter
- 3.3.2.The Carbon Star
Luminosity Function and other Observational Constraints
- 3.4.Nucleosynthesis during
Asymptotic Giant Branch Evolution
- 3.5.Nucleosynthesis via thermal
pulses
- 3.5.1.The carbon isotopic
ratio: 12C / 13C
- 3.5.2.Nitrogen isotopic
ratios
- 3.5.3.The Intershell Oxygen
Abundance
- 3.5.4.Fluorine
- 3.5.5.Other Species in the
Intershell
- 3.5.6.Heavy Magnesium
isotopes
- 3.5.7.Planetary nebulae and
post-AGB stars
- 3.6.Nucleosynthesis from Hot
Bottom Burning
- 3.6.1.C, N, and O
- 3.6.2.Ne, Na, Mg, and Al
- 3.6.3.Lithium
- 3.6.4.Type I planetary
nebulae
- 3.7.The slow neutron capture
process
- 3.7.1.Neutron sources in AGB
stars
- 3.7.2.The formation of
13C pockets
- 3.7.3.The s-process in
low-mass AGB stars
- 3.7.4.The s-process in
intermediate-mass AGB stars
- 3.8.Proton ingestion episodes:
PIEs
- 3.8.1.Overview of 1D PIEs
- 3.8.2.1D PIEs and the
i-process
- 3.8.3.Yields from 1D PIEs
- 3.8.4.Multi-dimensional PIE
calculations
- 3.9.Beyond the AGB: Super-AGB
stars
- 3.9.1.Super-AGB Evolution
- 3.9.2.Third Dredge-Up
- 3.9.3.Super-AGB
Nucleosynthesis
- 3.10.Final fates of AGB and
Super-AGB stars
- 4.MAJOR UNCERTAINTIES
- 4.1.Convection and the third
dredge up
- 4.1.1.Determining the Borders
of Convection
- 4.1.2.Structural Changes from
Convection
- 4.2.Mass loss
- 4.3.Extra mixing in AGB stars
- 4.4.Low temperature Opacities
- 4.5.The s-process
- 4.6.Binary evolution
- 5.CHEMICAL ENRICHMENT FROM AGB STARS
- 5.1.Stellar yields from AGB
stars
- 5.2.Summary of elements produced by
low and intermediate-mass stars
- 5.2.1.Lithium
- 5.2.2.Carbon, Nitrogen,
Oxygen
- 5.2.3.Fluorine
- 5.2.4.From Neon to Iron
- 5.2.5.Heavy elements produced
by the s-process
- 6.SUMMARY AND OUTLOOK
- REFERENCES