Welcome to the website for the Johns Hopkins undergraduate
quantum mechanics course. From here, you can get contact
information, download assignments and solutions and check for
announcements. Many links on this page are to PDF files. To
view them, you can
Course and
Contact Info
Professor Kovesi-Domokos' lectures are Monday,
Wednesday, Friday, 9-9:50 am,
in
BLBG 274.
George's Section is Tuesday, 1:30-2:20 pm, in
BLBG 274.
Sometimes, section and class will
switch places; this will be announced in advance in class.
Required Textbooks:
Announcements
The FINAL will be this Friday, May 8 at 9 am in Bloomberg 274.
Homework
Assignments
Here are the homework assignments and their respective solutions. Solutions can
be obtained in Lecture and Section by request.
- The Teaching of Quantum Mechanics. A great page by Prof. Daniel Styer at Oberlin on QM teaching, with a link to his paper in Am. J. Phys, "Common Misconceptions regarding Quantum Mechanics", plus all kinds of wonderful teaching simulations.
- Quantum
Mechanics Simulations and Explanations. This is a really cool
site with a lot of demonstrations.
- Quantum
Mechanics Made Simple! A ThinkQuest (TM) Competition website.
Pretty fun. Have a look.
- Quantum Mechanics
Message
Board - Run by Barnes&Noble, this is a message board where you
can post questions and answers to the general public. You need to
create an account, but it's free.
- History of Quantum Mechanics - A history of the subject with links to many excellent biographies of the people who founded it (part of a larger library of math and physics history). If you like history of science, this is the place for you!
- Linear Algebra review (PDF) - These
are notes( by Andrew Blechman, Ph.D. 2006) from the first couple of sections reviewing some of the
basic and important tools of linear algebra. You will find that linear algebra is central to what we'll be doing here, and you need a good feel for it; it's more important than calculus!
- Mathematics Primer (PDF) - This
is a review of mathematical tools useful for a first-year
graduate student taking the graduate courses. Almost everything
in here is too advanced for this course, but I include
it here for the few useful things it has. Also, you can feel
free to look it over and see what kind of mathematical trickery you
would use as a graduate student.
- Quantum simulations
- This is a project being constructed by Jeffrey Wasserman and
Professor Oleg Tchernyshyov here at The Johns Hopkins University's
Physics Department. The idea is to provide a quantum mechanics
lab where you can do "experiments". The material is actually
aimed at the graduate course, but there are still a few things that
can be learned as an undergraduate.
- Physics department at Johns
Hopkins University.
For even more links than you might know what to do with, see what
Google.com has on "
quantum
mechanics". Beware, however: there is a
lot of crap
out there!
There are many excellent quantum mechanics
texts out there. Most are above the level of the course, but can be informative or helpful conceptually. An undergraduate text between Griffiths and Townsend in sophistication is Liboff "Introductory Quantum Mechanics." Townsend was inspired by Sakurai "Modern Quantum Mechanics," if you like Townsend and are curious
about a more advanced treatment. Also similar at the graduate level is Schwinger "Quantum Mechanics: Symbolism of Atomic Measurements." Among other popular authors are Merzbacher and Messiah, and Shankar "Principles of Quantum Mechanics" is pretty much standard. For the mathematical foundations of quantum mechanics, there are standard books by John von Neumann and George Mackey. Landau and Lifschitz "Quantum Mechanics:Non-Relativistic Theory"(volume 3 of their 10 volume "Course of Theoretical Physics") has always been an undisputed classic.
A great book to look at is Mr.
Tomkins In Paperback, by George
Gamow. It is written for the general public, and has very little
to no math in it, but
it has some beautiful explanations. The idea is that Mr. Tomkins
goes to a physics lecture and, taking us all for surprise, falls
asleep. However, he has some great dreams where all
the phenomena of relativity and quantum mechanics becomes macroscopic.
As an example, he must learn how to hit a billiard ball when
confined to a small space of a pool table, and hence it's momentum
becomes very uncertain. I heartily recommend you get a hold of
this book and take a look at it.
(c) 2007; maintained by George Bruhn