Instructor Prof. Nicola
Spaldin, Room 2007 MRL, x7920, email@example.com
Office Hours Tuesdays, 9 - 11 am
Web page http://www.mrl.ucsb.edu/~nicola/211A_2006.html
Class Time Monday and Wednesday 2-3.50
Place 1437 Phelps
Teaching assistant Damien Boesch, x7922, firstname.lastname@example.org, Room 2003 MRL
TA Office Hours Tuesdays 4 - 5 and Fridays 1 - 2.30
D.J. Griffiths, Introduction to Quantum Mechanics, 2nd Edition, Pearson/Prentice Hall, 2005. ISBN 0-13-111892-7. This one will be our primary text book for the course.
Additional recommended reading:
P.W. Atkins and R.S. Friedman, Molecular Quantum Mechanics, Oxford University Press (2000). This book is particularly good for those of you who have a Chemistry background.
H. Kroemer, Quantum Mechanics, Prentice Hall (1994). This book is particularly good for those of you who have a strong background in wave mechanics
Feynman, Leighton and Sands, The Feynman Lectures on Physics, vol. III. This one is very good for concepts and understanding, but follows a very different development than the one that we'll be using in this course.
Grading and rules:
Your grade will be based on your performance in 3 areas: 1) the
homework sets (30% of the total grade), 2) the mid-term (30%
of the total grade) and 3) the final exam. (40% of
the total grade).
Homework will be assigned on Wednesdays,
and will be collected in class the following Wednesday.
Late homework will not be accepted, but your lowest score
will be dropped when calculating your total to accommodate sickness/busy-ness/travel.
The Mid-term exam. will be on Wednesday
Feb. 1st, in class. The final exam.
will be on Monday March 20th, 4-7pm. For the mid-term
exam. you will be allowed to bring in 1 page of notes, written
on one side; for the final you can have notes on 2 sides. You can
bring in a calculator to both exams.
The book by Griffiths is so good that we will more or less work through it directly, at (roughly) a rate of 1 chapter per week. The summary course outline below also points you to the reading in the other books.
||Griffiths Chapter 1.
Atkins: 1.1 - 1.12
Kroemer: Chapter 1.
||Solutions to the Schrodinger Equation.
Harmonic Oscillators. Normal modes. Phonons.
|Griffiths Chapter 2.
Atkins Chapter 2 and 10.8 - 10.14 and Further info 6 and 7
Kroemer: Chapters 2 and 10
||Formalism. Operators. Dirac Notation. Matrix
||Griffiths Chapter 3 and Appendix (Linear Algebra)
Atkins: Chapter 1.13 - 1.20 and Further info 22 and 23
Kroemer: Sections 7.1 - 7.4 and Chapter 13
Feynman: Chapters 8 and 20
||Wed. Feb. 1st. Mid-term exam. in class
||The hydrogen atom. Operators for angular momentum.
Angular momentum of composite systems.
||Griffiths Chapter 4.
Atkins: Chapters 3 (review of undergraduate) and 4
Kroemer: Chapters 3 (review of undergraduate) and 18, Section 7.5
Feynman: Chapters 18 and 19
||Time-independent perturbation theory.
||Griffiths Chapter 6.
Atkins: 6.1 - 6.8
Kroemer: Chapters 14 and 15.
|7||Techniques of Approximation. Variation principle. Hellmann-Feynman theorem.||Griffiths Chapter 7.
Atkins: pages 178 - 183
Kroemer: Chapter 12
extra handout - molecular orbital theory
|8||The WKB approximation.||Griffiths. Chapter 8.
Kroemer: Chapter 6.
|9||Time-dependent perturbation theory. Fermi's Golden Rule.||Griffiths. Chapter 9.
Atkins: pages 184 - 198
Kroemer: Chapter 19
We will have an extra class on Monday January 16th (MLK day) at our usual time/place.
Homeworks and in-class problems:
1 problem set. Due in class Wednesday January 18th.
Here are the
2 problem set. Due in class Wednesday January 25th. Here are the solutions.
3 problem set. Due in class Wednesday February 8th. Here are the solutions.
4 problem set. Due in class Wednesday February 15th. This is
the Mid-term exam from 2002. Here are the solutions.
5 problem set. Due Friday February 24th. This is the final exam
from 2003. Here are the solutions.
6 problem set. Here are the solutions.
is the practice final exam that Damien will work through on Monday March 13th.
This is the final exam from 2005.
The following are good practice problems for time-dependent perturbation theory
(actually, a good study approach would be to work through the problems in Griffiths
for the chapters that we've covered!):
Problem 9.2, page 343 (actually we already did this in class, but take the time to contemplate and understand the discussion).
Example 9.1, page 357
Problem 9.20, page 365 (this is similar to homework 4, but with explicit time-dependence in the Hamiltonian).
Also, remember to read through (and understand) Chapter 9 of Griffiths!