Phys3501 – Spring
2013
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Will be updated
regularly, Last modified 5/10/2013 12:37 PM
Link
to the Moodle site.
|
Date |
Topic |
Homework due? |
|
M 1-14 |
Classical
Thermodynamics Thermal equilibrium, temperature,
properties, states of a system |
|
|
W 1-16 |
Ideal gas, Van der
Waals gas, expansion and compressibility; phase diagrams |
|
|
F 1-18 |
Phase diagrams, internal energy, work;
configuration work and dissipative work; First law of thermodynamics |
handout 1.4 1.5 1.6 |
|
M 1-21 |
MLK Day |
|
|
W 1-23 |
Exact and inexact differentials; thermal
interaction; heat capacities |
|
|
F 1-25 |
Adiabatic processes, Carnot cycle |
Handout 1.11, 1.12, 1.17,
1.20, Book 1.33 |
|
M 1-28 |
Entropy, Carnot cycle and second law |
|
|
W 1-30 |
Entropy, Carnot cycle and second law |
|
|
F 2-1 |
Entropy, Carnot cycle and second law Introduction
to statistical methods Probability/ ensembles/phase space |
1.24, 1.25, 1.28, 1.29
(handout) 1.38 (book) |
|
M 2-4 |
Random walk Binomial distribution |
|
|
W 2-6 |
Means and dispersion |
|
|
F 2-8 |
Stirling
formula Poisson Distribution |
Handout Chapter 2:
2.7 Handout Chapter 1.35, 1:
1.43, 1.44, 1.45 answers |
|
M 2-11 |
Gaussian Distribution |
Problem set 1 handed out |
|
W 2-13 |
Multiple dimensions Functions of random
variables |
|
|
F 2-15 |
Entropy
and temperature Accessible states, multiplicity,
equilibrium, probability |
2.10, 2.11, 2.22 Handout
Chapter 2 |
|
M 2-18 |
Multiplicity functions for various systems |
|
|
W 2-20 |
homework |
Problem set 1 due |
|
F 2-22 |
Systems in
thermal contact – maximum of multiplicity, entropy, definition of temperature |
2.23, 2.24 Chapter handout 2.5 and 2.6 book answer |
|
M 2-25 |
|
|
|
W 2-27 |
|
|
|
F 3-1 |
Boltzmann
distribution and Helmholtz free energy Boltzmann factors, partition function |
Bookproblems,
chapter 2: 2.8, 2.9 (can be submitted electronically) answers Chapter handout 3, problem 12 |
|
M 3-4 |
Averaging, mean energy, dispersion |
|
|
W 3-6 |
Mean energy, specific heat, pressure, work |
|
|
F 3-8 |
Entropy, free energy and Z |
Chapter handout 4, problem
3 Schroeder 6.3, 6.5, 6.6 |
|
M 3-11 |
Partition function ideal gas |
|
|
W 3-13 |
|
|
|
F 3-15 |
Thermal
radiation and Planck distribution |
Handout 4 problem 13, 19 Schroeder problem 6.31 |
|
Spring break |
|
|
|
M 3-25 |
blackbody
radiation handout |
|
|
W 3-27 |
Chemical potential |
Problem Set 2
is handed out |
|
F 3-29 |
6.20, 6.42, from book answer |
|
|
M 4-1 |
Chemical potential |
|
|
W 4-3 |
Fermi
and Bose Gases |
|
|
F 4-5 |
Distributions |
Problem 6, handout6 |
|
M 4-8 |
Fermi gas, conduction electrons |
Problem Set 2 is due at class time |
|
W 4-10 |
Further
development of thermodynamics Thermodynamic functions, Maxwell relations |
|
|
F 4-11 |
Thermodynamic functions, interpretation |
Schroeder 7.10, 7.11, 7.20 |
|
M 4-15 |
Applications of thermodynamic functions |
|
|
W 4-17 |
Gibbs distribution |
|
|
F 4-19 |
||
|
M 4-22 |
Gibbs distribution, examples |
|
|
W 4-24 |
Equilibrium situations |
|
|
F 4-26 |
Phase equilibrium |
Handout 8, problems 8, 9, 10 |
|
M 4-29 |
Presentation Peter: Bose-Einstein
condensation |
|
|
W 5-1 |
Presentation Allie: Maxwell velocity
distribution |
|
|
F 5-3 |
Presentation Jack: Ferromagnetism |
Handout 9 problem 5 Schroeder 5.28, 5.37 |
|
Final exam |
Take-home |
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Last modified 5/10/2013 12:37 PM
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