Developments in physics of massive stars
arXiv:0802.2805 · doi:10.1017/S1743921308020449
Abstract
New constraints on stellar models are provided by large surveys of massive stars, interferometric observations and asteroseismology. After a review of the main results so far obtained, we present new results from rotating models and discuss comparisons with observed features. We conclude that rotation is a key feature of massive star physics.
13 pages, 10 figures, IAU Symp. 250, Massive stars as Cosmic Engines, F. Bresolin, P.A. Crowther, J. Puls Eds
References in corpus (9)
- The effect of massive binaries on stellar populations and supernova progenitors
- The VLT-FLAMES survey of massive stars: rotation and nitrogen enrichment as the key to understanding massive star evolution
- Stellar Rotation in Young Clusters. I. Evolution of Projected Rotational Velocity Distributions
- Fundamental Properties of O-Type Stars
- Rotational Velocities For B0-B3 Stars in 7 Young Clusters: Further Study of the Relationship between Rotation Speed and Density in Star-Forming Regions
- The Role of Evolutionary Age and Metallicity in the Formation of Classical Be Circumstellar Disks I. New Candidate Be Stars in the LMC, SMC, and Milky Way
- B Star Rotational Velocities in h and chi Persei: A Probe of Initial Conditions During the Star-Formation Process
- Stellar Rotation in Young Clusters. II. Evolution of Stellar Rotation and Surface Helium Abundance
- Rotation of Early B-type Stars in the Large Magellanic Cloud - The role of evolution and metallicity
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- Stellar Evolution in the Early Universe
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