Department of Mathematics Generic Syllabus
Boise State University Updated Fall 1998
Math 326
Complex Analysis
3 semester credits
Catalog Description
M 326 Complex Analysis (3-0-3)(S)(Offered on
demand even numbered years) Complex numbers, functions of a complex
variable, analytic functions, infinite series, integration, the
residue theorem and conformal mapping. PREREQ: M275
Prerequisites
Multivariable and vector calculus.
Jurisdiction
This course is not currently controlled by a departmental committee
and individual instructors may choose different textbooks. Exams,
homework and grading system are left to the instructor.
Learning Objectives
As an upper division mathematics course in an area with applications
to non-mathematical areas, this course can vary in its focus
toward the general departmental goals. Some faculty will emphasize the
aesthetic nature of the subject while others will concentrate on the
nontrivial applications to non mathematical fields. In both cases, the
course will emphasize the nature of mathematics as a language and as a
collection of tools with the understanding of the limitations of those
tools.
Upon completion of this course, the students will have made
substantial progress in:
- extending their skills in elementary calculus to the complex
plane.
- Finding Taylors and Laurent series for complex functions.
- Using the topology of the complex plane to determine limits of
sequences and series of complex valued functions
- applying complex residue theory to integration of real valued
functions over the real line.
1 Assessment of Learning Objectives
Students will be assessed by evaluating their ability to do problems
based on the learning objectives. The problems will occur in several
contexts;
- Periodic problem sets for homework serve both as learning and
assessment tools. Classroom activities may vary depending on students'
performances on homework assignments.
- Problems given on in-class examinations are designed to give
students the opportunity to demonstrate their ability to apply rules
and formulae to the solution of simpler problems.
- Instructor optional take-home examinations designed to evaluate
the students ability to solve more complicated and time consuming
problems. These problems give students the opportunity to demonstrate
their ability to use technology to solve problems that are not
amenable to simple analytic techniques.
Topics and Approximate Timeline
|
|
| Number of |
| Topic | Lectures
|
| Geometry and arithmetic of complex numbers | 3
|
| Topology of the complex plane | 3
|
| Cauchy-Riemann equations and analyticity | 6
|
| Exponential and logarithmic functions and analytic branches | 5
|
| Complex integration | 9
|
| Series representations | 9
|
| Residue theory | 10 |
Text
The following texts are appropriate for this course:
R.V. Churchill
& J.W. Brown, Complex Variables and Applications, McGraw-Hill,
1984.
I. Stewart & D. Tall, Complex Analysis, Cambridge
University Press, 1983.
E. B. Saff & A. D. Snider
Fundamentals of Complex Analysis for Mathematics, Science and
Engineering Prentice Hall, 1976
Format, Student Activities, and Grades
Class meetings involve a combination of lecture, questions and
discussion and sometimes small group activity. The particular mix is
determined by the current instructor.
As in all mathematics courses, homework is an important part of the course.
The exams may be given in class or take-home. The students are given a
letter grade based on points earned. The points are typically
available as:
|
|
| Homework | 100
|
| Two exams | 200
|
| Final exam | 200
|
| Total | 500
|
Letter grades are based on a scale in which 90% of the 900 possible
points guarantees an A, 80% a B, 70% a C, 60% a D, and less an F,
with the instructor having the discretion to adjust these cut-offs if
warranted.
File translated from TEX by TTH, version 1.56.