**TITLE** ASP Conference Series, Vol. **VOLUME**, **PUBLICATION YEAR** **EDITORS** Radiation driven atmospheres of O-type stars: constraints on the mass–luminosity relation of

Source URL: www.usm.uni-muenchen.de

• Stellar evolution
• Light sources
• Stellar astronomy
• Star types
• Standard candles
• Star
• Luminosity
• Cosmic distance ladder
• Mass–luminosity relation
• Astronomy
• Physics
• Astrophysics

PHD QUALIFY EXAMINATION —GALACTIC AND EXTRAGALACTIC ASTROPHYSICS September, points) Calculate the order of magnitude of the Sunyaev-Zel’dovich effect for a typical cluster of galaxypoints)

Source URL: www.astro.ncu.edu.tw

• Astrophysics
• Photometry
• Space
• Physical quantities
• Extragalactic astronomy
• Tully–Fisher relation
• Active galactic nucleus
• Luminosity function
• Mass-to-light ratio
• Physics
• Astronomy
• Physical cosmology

Homework #1 1. The density of the interior of the sun is significantly larger than that of water. a) Provide a quantitative relation between the temperature and density of a star which indicates when we can treat it as a

Source URL: astro.berkeley.edu

• Space
• Polytrope
• Lane–Emden equation
• Luminosity
• Polytropic process
• Mass–luminosity relation
• Stellar classification
• Star
• Main sequence
• Astrophysics
• Physics
• Astronomy

Shell Burning Red Giants Supergiants Asymptotic Giant Branch Paczynski Relation: (Core Mass-Luminosity)

Source URL: www.astro.princeton.edu

The stochastic nature of stellar population modelling Miguel Cervi˜noa,b,c a Instituto arXiv:1312.0015v1 [astro-ph.IM] 29 Nov 2013

Source URL: ned.ipac.caltech.edu

• Stellar evolution
• Space
• Globular cluster
• Initial mass function
• Luminosity
• Hertzsprung–Russell diagram
• Normal distribution
• Mass–luminosity relation
• Cosmic distance ladder
• Physics
• Astronomy
• Stellar astronomy