Astronomy 4101B, Stellar Astrophysics, Winter 2019

Department of Physics and Astronomy, Western University

Course Information Sheet

  1. General Information

    Instructor
    Professor Shantanu Basu
    Rm 258 Physics and Astronomy Building
    Tel. 519-661-2111 ext. 86706
    Email: basu "at" uwo "dot" ca
    Lectures
    Tu 10:30 am - 12:20 pm in PAB 150, Th 10:30 am - 11:20 am in PAB 148.
    Prerequisites
    Physics 2101A/B and 2102A/B; Calculus 2503A/B.
    Required Materials
    There is a recommended textbook:
    Stellar Astrophysics, LeBlanc, F. 2010, Wiley, ISBN 978-0-470-69956-0 (paperback)

    The most important requirement is to come to class and be prepared for discussion. Most class material is delivered on the board and is based on my own notes. Attendance at lectures and solving the practice problem sets are an excellent preparation for the midterm and the final exam.

    The following textbooks may also be helpful for supplementary reading during certain parts of the course.

    An Introduction to Modern Astrophysics, Carroll, B. W., and Ostlie, D. A. 1996, Addison-Wesley
    An Introduction to Modern Stellar Astrophysics, Ostlie, D. A, and Carroll, B. W. 1996, 2007, Pearson Addison-Wesley
    The Physical Universe, Shu, F. H. 1981, University Science Books

    The first two are undergraduate textbooks which contain a significant number of problem sets, while the last one is an introductory undergraduate level book with excellent discussion of ideas.

    Website
    http://www.physics.uwo.ca/~basu/teach/ast4101/

    The website contains this information sheet. Other materials may be disseminated through this website or the course OWL site. The website will not be used for disseminating lecture notes. I will lecture the old-fashioned way, on the whiteboard in class.

  2. Overview

    This course covers the astrophysics of stars, and is aimed at undergraduate students in third and fourth year. I will assume a basic understanding of ordinary differential equations. The material that we might cover is vast, ranging from concepts of gravity and modern physics, to stellar interiors and atmospheres, and on to stellar evolution. Indeed a full wish list of topics cannot be covered in one term. My philosophy will be to provide a grounding in some of the basic physics of stars and star formation, encourage you to learn how to make quick estimates and appreciate the big picture. You will be expected to write short computer programs and present graphical results for the two computational projects.
  3. Course Outline

    I have made up a list of topics that I would like to cover this term. It is a living list, which may be edited as the term progresses. I believe that the main point of this course is to understand well at least some aspects of this vast subject, and develop skills that will serve you well throughout your future career. You may also check the list of learning outcomes for this course.
  4. Class participation

    I encourage you to ask questions and participate in class discussions. If you have a question, chances are that others do too and will benefit from hearing the answer to your question. Also, there is nothing more discouraging to an instructor than a non-responsive audience.
  5. Marking

  6. Schedule

    The midterm exam is scheduled for Feb 5. The computational projects will be due in early March and early April, respectively. The final exam will be in April during the university scheduled exam date.
  7. Contact Information

    I am unlikely to be helpful if you visit me at random times. Email is a good way to set up a meeting or to make short queries about the class. I cannot reply to an email asking for a lengthy response. Questions requiring lengthy answers are best asked in person.
  8. Important Messages