| 
 ASTRONOMY 386C Properties of Galaxies Spring 2002, 2009, and 2013 
  | 
|---|

Click on the galaxy to go to the Hubble Heritage web site from which this image was taken.
     
 
 
 Lectures mostly in Powerpoint .pptx format:     
Lectures 1 and 2 (2009 html version)  
Three-lecture general introduction on galaxy evolution (Powerpoint version) 
A short general introduction on galaxy evolution (2013 Powerpoint version) 
Our Milky Way galaxy -- 2017 summary of a 2016
          IAP Paris conference in Powerpoint) 
          and in a pdf version.  
Observed properties of elliptical galaxies (2013 Powerpoint version) 
Observed properties of disk galaxies (2013 Powerpoint version) 
Environmental secular galaxy evolution (2013 Powerpoint version) 
Dark matter (2013 Powerpoint version) 
Supermassive black holes - A short introduction (2013 Powerpoint version) 
 
 There will be 4 in-class exams; for example, please see the 2009 syllabus for what they will cover and 
      for how their relative weights will contribute to your final grade.  
      Homework grades will
      provide the remaining 10 percent of your final grade.  Preparation of
      graduate-level lectures is like writing a review paper -- it is not
      possible to predict exactly how much time it will take to cover each
      subject and hence when each test will be.  The first test will very
      likely take place during the 5th lecture, and the last test will
      certainly take place during the last lecture.  Other test times
      will be determined as we go.  You will generally have at least one
      week's notice.
     Numerical grades will be converted to letter grades approximately 
       as follows: I may make small adjustments to the above, but I will not
         make the scale more difficult.  If you are
         taking this course on a pass/fail basis, University rules say that 
         a passing grade is equivalent to a D or higher.
     
University of Texas Astronomy Home Page 
 
 
Last update: February 17, 2017.  Total visits since January, 2016 =  
 
            
  
         
  
         
    COURSE DESCRIPTION:
        
    This course is an introduction to the properties of galaxies at the graduate 
    and postgraduate research level.  It is intended mainly to provide an
    understanding of the structure and content of galaxies and clusters of
    galaxies and a good phyical understanding of how they got that way and
    how they are evolving.  As much as possible, subjects are covered in the
    words and using the diagrams and images of the original authors that 
    derived the results.  The course is intended to provide a thorough 
    introduction to the literature at the level neessary to conduct research.
    Of course, time limitations mean that some subjects are covered in 
    greater depth than others.  There will be a few homework exercises,
    but on the whole, the emphasis is on a conceptual understanding of physical
    processes in the context of the 
    "big picture", not on developing a facility in calculation.  On the 
    other hand, understanding often depends on an ability to do simple
    derivations at a heuristic level.  An example is the demonstration
    that the specific heat of an isolated, self-gravitating 
    system in equilibrium is negative.  And what this means.  
   
  
     
  
       
    TEXTBOOK:
    
    
      Galactic Dynamics by James Binney and Scott Tremaine, published by
      Princeton University Press.  For this course, either
      the first or the second edition is OK.  I will not assign specific 
      reading or exercises from the book, so the book is not required.
      I will base some of the dynamical
      derivations on the developments given in the book.  You may want the
      book to provide detailed discussions as alternatives to my lectures.  
  
     
    
  
       
    EXAMS AND GRADES: 
    
       
  
        
           
         A =  
          85 % or more  
        
           
         B =  
          84 - 75 %  
        
           
         C =  
          74 - 65 %  
        
           
         D =  
          64 - 55 %  
        
           
       F =  
          less than 55 %