STATISTICAL MECHANICS (PHY 330.001)-Fall Semester, 2002

Text:
Statistical Physics, 2nd ed., F. Mandl, Wiley (ISBN 0 471 91533 5)
Class meets at:
12:15-1:30 TR, Willet Science Center (WSC) Room 106
Prerequisites:
MATH 293 and 330, PHY 162
Instructor:
Dr. Randall D. Peters
Office:
WSC Room 115, Office phone: 301-2747 (home phone: 745-6963)
Office hours:
MWF 8:30-9:00, 2:00-2:30, TR 8:30-9:30, or by appointment.  
e-mail:
peters_rd@mercer.edu
personal homepage:
http://physics.mercer.edu/petepag/nonlin.htm
physics department homepage:
http://physics.mercer.edu

Concerned with both classical and quantum concepts of thermal physics, the first material to be covered in this class will be foundation principles of thermodynamics and probability.  Classical material will include an introduction to the kinetic theory of gases, developed by Maxwell and Boltzmann.
Entropy will be introduced through the ideal gas law and subsequently as defined by Boltzmann. Students will learn the importance of quantum physics in determining system characteristics, according to particle type.  Cases to which theory will be applied include: heat engines and refrigerators; magnetic systems, especially paramagnetic types; real gases;  black-body radiation; electronic properties of metals; and recent experiments with Bose condensates.
  
Expectations -- Through this course, students will:
Understand the laws of thermodynamics.
Learn how to use the equipartition theorem.
Appreciate fluctuation phenomena and their influence according to scale.
Recognize some of the limitations of idealized models.
Describe some phenomena where nonlinearity is key to understanding, such as thermal expansion.
Learn the importance of quantum mechanics to a host of system properties.
Understand why and how heat capacity varies with temperature (through theories of Einstein and Debye).
Write computer programs to demonstrate principles, such as `the arrow of time'.
Estimate probabilities using variates from a specified distribution function.
Use the computer to integrate Planck's (analytically intractable) blackbody distribution.
Solve some problems using monte carlo methods.
Know about phase transitions and hysteresis.

Final Exam: Friday, 13 Dec., 2-5 pm.



Grading Scale: 60-D-70-C-80-B-90-A-100
(based on: Homework-1/3, Midterm-1/3 (17 October, Thursday), and Final-1/3.

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