Date |
Lecture |
Topic/Activity |
HW |
M 8/28 |
1 |
Ch 1 - Failures of classical physics: heat capacity, blackbody radiation |
#1 out |
W 8/30 |
2 |
Ch 1 - Failures of classical physics: photoelectric effect, atomic spectra, electron diffraction |
|
F 9/1 |
3 |
Ch 2 - Quantum-to-classical transitions |
#1 due (Sa) |
Labor Day |
|
No class |
|
W 9/6 |
4 |
Ch 2 - Classical wave equation, Euler's formula, Schrodinger wave equations |
|
F 9/8 |
5 |
Ch 2 - Inner product of complex functions, Hermitian operators, eigenvalues, orthogonality |
#2 due |
M 9/11 |
6 |
Dan - Derivation of classical wave eqn, development of Schrodinger wave eqn |
|
W 9/13 |
7 |
Alan at San Francisco ACS mtg - No class |
|
F 9/15 |
8 |
Ch 2 - Orthogonality, completeness |
#3 due |
M 9/18 |
9 |
Ch 4 - Free particle, Particle in a 1-D box (begin) | graphs of Psi v. Psi^2 |
|
W 9/20 |
10 |
Ch 4 - Particle in a 1-D box (contd) | notebook I | notebook II |
|
F 9/22 |
11 |
Ch 4 - Particle in a 1-D box (finish) | notebook |
#4 due |
M 9/25 |
12 |
Ch 5 - Particle in a 1-D box with one infinite wall + one finite wall | notebook |
|
W 9/27 |
13 |
Ch 5 - Particle in a 1-D box with a double-well + step barrier | wave functions |
|
F 9/29 |
14 |
#5 due |
|
M 10/2 |
15 |
Ch 6 - Measurements & commuting operators |
|
W 10/4 |
16 |
Ch 6 - Experiments involving non-commuting operators: Stern-Gerlach, electron diffraction |
#6 out |
F 10/6 |
17 |
Ch 6 - Comments on "Gaussian" free electron (see W 10/4 notebook!) |
|
M 10/9 |
18 |
Ch 7 - Harmonic oscillator - why is E quantized? (finish) |
(Tu) Take-home |
W 10/11 |
19 |
Ch 7 - Harmonic oscillator - analysis |
|
F 10/13 |
20 |
Ch 7 - 2-D Rigid rotor (known rotation axis) & 3-D rigid rotor (unknown axis) |
(Sat) Take-home |
Fall Break |
|
|
|
M 10/23 |
21 |
Ch 7 - 3-D Rigid rotor (finish) | Plots of Spherical Harmonics (notebook) |
|
W 10/25 |
22 |
Ch 8 - Spectroscopy: Separation of coordinates, spectroscopic transitions |
#6 due |
F 10/27 |
23 |
Ch 8 - Vibration selection rules |
|
M 10/30 |
24 |
|
|
W 11/1 |
25 |
Ch 9 - Hydrogen atom energies |
#7 due |
F 11/3 |
26 |
|
|
M 11/6 |
27 |
Q&A for Exam #2 (In-class midterm will be Tue in conference) |
#8 due |
W 11/8 |
28 |
|
|
F 11/10 |
29 |
Ch 10 - Polyelectronic atom wave functions: Extreme IPA model, Electron spin, Electron indistinguishability |
(Sa, 5 pm) Take-home |
M 11/13 |
30 |
Ch 10 - Polyelectronic atom wave functions: Pauli principle, spin orbitals, Slater determinants |
|
W 11/15 |
31 |
Ch 10 - Energy of IPA model, Electron energy, IP trend, HF model (handout on variation method) |
|
F 11/17 |
32 |
Ch 12 - Models for H2+ |
#9/10 out |
M 11/20 |
33 |
|
|
W 11/22 |
34 |
Ch 12 and 13.2 - Models for H2 and HF. Simplified MO calculations A |
#9 (partial) due |
Thanks- |
|
|
|
M 11/27 |
35 |
Ch 13.2 - Simplified MO calculations B |
Tuesday |
W 11/29 |
36 |
Teaching evaluation |
|
F 12/1 |
37 |
Ch 14.7 - Using Huckel MO models (handout on Huckel MO) | SHMO |
|
M 12/4 |
38 |
Perturbation Theory (handout on perturbation MO) |
|
W 12/6 |
39 |
Dewar's Perturbation Theory (handout on NBMO calculations) |
|
(last updated 12/13/06)