Tu Th 2:10 pm -3:25 pm
Room: TH 428
Note: Check all the links in this document: they refer
to important information.
Dr. Susan Lea - Thornton Hall, Room 334
e-mail me your questions and I'll post the answers here:
Text: Mathematics for Physicists. Susan Lea
Brooks/Cole Publishing
Co
A student solutions manual is also available
Mathematics is the language of Physics, and in this course we shall
learn some of that language. The course will be an overview of some of
the more commonly used techniques of theoretical physics. Emphasis will
be on application of the techniques rather than the rigorous
mathematical foundation. More than that, I hope you will learn
how to write a complete solution to a problem, formulating your
arguments clearly and concisely.
Learning objectives:
After successfully completing this course you should be able to:
Identify the appropriate mathematical tools needed to solve a given
physics problem.
Execute the required mathematical steps accurately.
Use appropriate numerical tools both in computation and in display of
results.
Correctly formulate logical arguments.
Perform a thorough analysis of the result, including understanding
how physics principles effect the evolution of the system under study.
Produce a clear discussion of both the physics of the system and the
methods used to solve the problem.
Students in Physics 785 will be asked to solve problems involving
more advanced reasoning. Graduate students should produce
solutions with more elegance and completeness than is expected for
undergraduate students. Graduate students should go beyond the
explicit requirements of each problem, to investigate and explore the
problem in detail.
Course procedures
We shall cover chapters 1 through 8 of the text, and additional topics
as time permits. We shall look at applications in electromagnetic
theory,
mechanical waves, heat flow, etc. Homework
sets will be assigned
weekly.
You are urged to discuss the problems among yourselves and with me. But
please get them done! The only way to become comfortable with the
material
is through practice, so the problems will weigh heavily in the grading
scheme.
I am looking for an honest effort, with a growth in capability
throughout
the semester. You are not required to get everything right at the first
attempt.
I shall not accept late homework except in the case of
illness or similar cirucmstances.
Use of any solution sets of
any kind and from any source is strictly forbidden! Your work
must be your own. Please review the department's plagiarism
policy.
Grading will be based on the problem sets (35%), a mid-term
(closed book, in class - 25%) and a take home final examination (40%).
In problem sets I am looking for a clear discussion of the issues and
an accurate computation. Details.
Your discussion should be clear, complete, yet concise.
Avoid superfluous or counterproductive phrases! Here is a
partial list of things to avoid.
Please talk to me early in the semester to be sure you understand all class requirements.
If you do not already have one, talk to me about getting a computer
account. Some of the problems require numerical computation and/or
graphics.
If you choose to use a computer typesetting program to do your
assignments, you are responsible for proper formatting, line breaks and
so on as well as including necessary diagrams. Since the purpose
of this class is to learn mathematical technique, computer programs and
published tables are not to be
used to do integrals, sum sums, or especially to do algebra.
Text: Mathematics for Physicists. Susan M. Lea
Prerequisites: Physics 360 or consent of instructor.
Additional reference materials:
See the bibliography in the text.
Butkov: Mathematical physics. Previous text for this course
Apostol:Analysis. If you have never had a course in real or complex analysis, I recommend that you buy this book and read it carefully and thoroughly.
Margenau and Murphy: The Mathematics of Physics and Chemistry. Old but good
Mathews and Walker. Written as the text for this course at Caltech.
Courant and Hilbert: Reference work that has everything, but it's heavy going. 2 volumes.
Morse and Feshback: Methods of Theoretical Physics. See comments above. I prefer this book.
Jeffreys and Jeffreys. Methods of Mathematical Physics - dots the i's and crosses the t's. You may enjoy the quotes that start each chapter.
Arfken and Weber. .It's all in there, but the organization can be hard to follow sometimes.
Schaum's Outlines has texts on both Fourier and Laplace transforms. Good for extra examples.
Boas This text is at a slightly lower level.
There are many other useful texts with similar titles.
Class Schedule for Fall 2008
Office hours