This is the catalog description of the course:
01:640:403. Introductory Theory of Functions of a Complex
Variable (3) Prerequisite CALC4 First course in the theory of a complex variable. Cauchy's integral theorem and its applications. Taylor and Laurent expansions, singularities, conformal mapping. |
The methods of the course grow out of multivariable calculus and power
series. The results of the course are both extremely beautiful and
enormously applicable. Applications abound in physics and engineering,
and any field which studies asymptotics (such as parts of theoretical
computer science) relies on results from complex analysis. The
essential prerequisites for the course include acquaintance with
partial derivatives, line integrals, and power series, and students
must know this material fairly well at the beginning of the
course to be successful. I'll check on this knowledge with an entrance exam to be handed out on
the first day of class.
While some parts of calculus with complex numbers resemble routine
elements of calculus 1, there are profound differences, most of which
consist of amazing simplifications and apparent coincidences. These
actually signal significant ideas! Many of the techniques of complex
analysis are now incorporated in such programs as Maple and Mathematica, but any use of these programs
will be a rather minor part of the course. My last observation here is
a restatement: the material of this course is beautiful and my
ambition is to help you discover this beauty.
Text The text is Complex Variables by Stephen D. Fisher,
2nd edition (1999) published by Dover Books, list price
$18.95, ISBN 0-486-40679-2. Amazon sells
it for $12.89. I hope to cover essentially all of chapters 1 and 2,
most of chapter 3, and a significant part of chapter 4. This is
subject to change as I learn more about the preparation, abilities,
and interest of the students.
There are certainly
Prerequisites As mentioned previously, students must have excellent command of all three semesters of calculus. Any additional experience with partial differential equations and geometric reasoning will be useful. Further background in mathematical physics will also be helpful.
Exams, grades, etc. There will be two in-class exams, which will be announced well in advance, and a final exam on Friday, May 7, from 4 to 7 PM. While exam grades will be the principal source of the course grade, there will also be graded homework and probably some in-class work.
Instructor
S. Greenfield
Office: Hill 542; (732) 445-3074;
greenfie@math.rutgers.edu
Office hours: Wednesday 2 to 3:30 and Thursday from 10 to 11:30 and by
appointment (e-mail is best for arranging appointments). I will try to
answer e-mail promptly and that might be the simplest way to get a
rapid response to questions.
Maintained by greenfie@math.rutgers.edu and last modified 1/18/2010.