Class Hours: 12:30 - 13:45 Morey 506
Prof: Eric Blackman, Bausch &Lomb 417A, 5-0537, firstname.lastname@example.org
Course Material and Texts:
This course will cover the physics of stellar interiors, stellar structure and stellar atmospheres, and some aspects of star formation.
There will be no required textbook but one useful book is by George W. Collins and is available in full online: G. W. Collins textbook "Fundamentals of Stellar Astrophyscs"
The chapter titles form a good outline for the material to be covered:
Chapter 1: Introduction and Fundamental Principles
Chapter 2: Basic Assumptions, Theorems, and Polytropes
Chapter 3: Sources and Sinks of Energy
Chapter 4: Flow of Energy through the Star and Construction of Stellar Models
Chapter 5: Theory of Stellar Evolution
Chapter 6: Relativistic Stellar Structure
Chapter 7: Structure of Distorted Stars
Chapter 8: Stellar Pulsation and Oscillation
Chapter 9: The Flow of Radiation Through the Atmosphere
Chapter 10: Solution of the Equation of Radiative Transfer
Chapter 11: Environment of the Radiation Field
Chapter 12: The Construction of a Model Stellar Atmosphere
Chapter 13: Formation of Spectral Lines
Chapter 14: Shape of Spectral Lines
Chapter 15: Breakdown of Local Thermodynamic Equilibrium
Chapter 16: Beyond the Normal Stellar Atmosphere
OTHER TEXTBOOKS FOR BACKGROUND AND SUPPLEMENTARY MATERIAL:
Modern Astrophysics (Carroll and Ostlie)
Stellar Structure and Evolution (Kippenhahn and Weigert)
Theoretical Astrophysics vol 2. (Padmanabhan)
Tapestry of Modern Astrophysics (Shore)
Physics of Fluids and Plasmas (Choudhuri)
This will be an informal and interactive course. Grading will be Pass/Fail.
(1) Class Presenation/Project: Start Early!
(2) homework problems (maybe)
(3) Class Participation and possible class lecturing when I am away.
EXAMPLE TOPICS for Projects or Lectures ouside of Main Curriculum:
* Asteroseismology and Helioseismology (understanding the interior stellar structure from surface observations)
* Supernovae Type I and Type II (relation to stellar evolution)
* Planetary Nebulae (relation to stellar evolution)
* Role of Rotation for Stellar Structure (example: for Neutron Stars)
* Measuring Mass vs. Surface Rotation Rate Relations (correlations with magnetic activity and stellar type?, how is it done?)
* Pre-Main Sequence Stellar Evolution
* Numerical Simulations and Stellar Structure (what is the current state of issues)
* Planet Detection and Stellar Type (what do we know about the stars around which there are observed planets?)
* Variable Stars (e.g. Cepheids)
* Stellar Winds
* The first stars of the universe: differences between these stars and present day stars, their role in cosmology.
* What is the upper limit on stellar masses (theory and observation). Can "superstars" power quasars?
* Solar neutrino problem
* Galactic structure and stellar populations on the HR diagram
* Binary stars
Other Links: Astronomy picture of the day archive .