Astronomy 311, Stellar Astronomy & Astrophysics

Fall 2015

MWF 1:00-1:50

Room 219 JCL

Dr. Chris Fragile

Office: JCL 207

Office hours: Tu/Th 11:00-12:00, 12:30-1:30

But if you see me in my office at other times, you are welcome to stop in.

Phone: 953-3181

fragilep@cofc.edu


 [ Tentative Schedule ] [ General Info ] [ Goals and Objectives ] [ Grading Scheme ]


Tentative Schedule (Subject to change as we go.)

DATE

COURSE MATERIAL

ASSIGNMENTS/NOTES
26 Aug 3.3 Wave Nature of Light  
28 Aug 3.2, 3.4-3.5 Magnitudes, Blackbody Radiation & Quantization HW 1, Solutions
31 Aug 5.1-5.2 Spectral Lines & Photons  
2 Sep 5.3 Bohr Model  
4 Sep 8.1 Formation of Spectral Lines HW 2, Solutions
9 Sep 8.2 H-R Diagram  
11 Sep 10.1 Hydrostatic Equilibrium HW 3, Solutions
14 Sep 2.4 Virial Theorem  
16 Sep 12.2 Formation of Protostars  
18 Sep 12.3 Pre-Main-Sequence Evolution  
21 Sep 9.1 Radiation Field HW 4, Solutions
25 Sep 9.2 Stellar Opacity  
30 Sep 9.3 Radiative Transfer  
2 Oct   Test #1, Solutions
5 Oct 9.4 The Transfer Equation HW 5, Solutions
12 Oct 9.5 Profiles of Spectral Lines Project
16 Oct 10.3 Stellar Energy Sources HW 6, Solutions
19 Oct No class!  
21 Oct 10.4 Energy Transport & Thermodynamics  
23 Oct 10.5 Stellar Model Building HW 7, Solutions
26 Oct 11.1 Solar Interior  
28 Oct 11.2 Solar Atmosphere  
30 Oct 10.6 The Main Sequence  
2 Nov Nucleosynthesis HW 8, Solutions
4 Nov Nucleosynthesis  
6 Nov Nucleosynthesis  
9 Nov 13.1 Evolution on the Main Sequence  
11 Nov 13.2 Late Stages of Evolution  
13 Nov   Test #2, Solutions
16 Nov 15.1 Post-Main-Sequence Evolution HW 9, Solutions
18 Nov 13.3 Stellar Clusters  
20 Nov 15.2-15.3 Supernovae  
23 Nov 16.3-16.4 Degenerate Matter  
25-27 Nov Thanksgiving Break!  
30 Nov 16.2 White Dwarfs HW 10, Solutions
2 Dec 16.6 Neutron Stars  
4 Dec 16.7 Pulsars  
7 Dec 17.3 Black Holes  
9 Dec Final Exam, 12-3 pm, JCL 219  

 


Syllabus Fine Print

Prerequisites/Corequisites: MATH 221 and ASTR 231

Required text: An Introduction to Modern Astrophysics, B. W. Carroll & D. A. Ostlie (2nd Ed.)

Recommended text: An Introduction to Stellar Astrophysics, F. LeBlanc

Attendance: Attendance is the responsibility of the student. Assignments are expected to be turned in when they are due. Late submissions will be penalized, if they are accepted at all.


Official Course Description:

The basic concepts of the physics of stars and stellar systems are explored. Topics covered include: celestial mechanics, formation of spectra, stellar interiors and atmospheres, classification of stellar spectra, formation and evolution of stars, degenerate remnants of stars, pulsating stars, and binary stars.

Learning Outcomes:

  1. Deepen students’ understanding of basic astrophysical principles.
  2. Broaden students’ training in astrophysical sciences.
  3. Develop in the students a working knowledge of stellar astrophysics.

Grades:

Your grade will be assessed based upon two midterm exams, approximately weekly homework assignments, a final exam, and a course project. Each assignment category will be given equal weight. The formal grading scale might change depending on how the class performs, but the final scale will be no more stringent than the one below.

Homework 20%
Exam #1 20%
Exam #2 20%
Project 20%
Final exam 20%
  A A-
  >80% 76-80%
B+ B B-
72-76% 68-72% 64-68%
C+ C C-
60-64% 56-60% 52-56%
D+ D D-
48-52% 44-48% 40-44%
  F  
  <40%