
MATH
503 - 011 Advance Calculus for Applications Fall 2009
Instructor Dr.
Fioralba Cakoni
Office 402
Ewing Hall
Phone 831-0592
E-mail
cakoni@math.udel.edu
Course Web Site http://www.math.udel.edu/~cakoni/math503.html
Office Hours Mondays and Wednesdays 11:00 – 12:00 or by
appointment
Textbooks
·
Calculus of Variations by
Gelfand & Fomin
·
Nonlinear Dynamics and
Chaos by Strogatz
This is a course in advanced
calculus. Over the last several years, you have taken multiple courses
called “Calculus.” For the most part, they have been concerned with the notion
of a derivative and the notion of an integral. Almost all other topics were
built upon these. In some sense, this course is an extension of that idea.
However, there are so many topics that could fit into “advanced calculus” that
we must use some discretion in our choice of topics. In this class, we will
focus on three broad areas
·
advanced integral
calculus
·
the calculus of
variations
·
nonlinear dynamics
You will find that the tools we
develop in this course are of broad applicability. You should also be aware
that we will rely upon material from many of your prior mathematics courses
this semester. If you feel rusty on some topics, a review is necessary.
General
Remarks
If you choose to take this class and
develop your mathematical skills you should be prepared to:
• Read regularly and critically - You will have a text
for this course, notes that I will prepare, and outside references to consult.
In order to master the material it is necessary that you read these materials
regularly and critically.
• Attend Class - If you choose to take this class,
you’ll need to attend. A good portion of the material we cover will not be in
your text. Don’t decide to take this class without committing yourself to
attending each and every class. I will not
take attendance.
• Complete
Problem Sets - The heart of this course is the homework
problems. It is in doing the homework that you will master the material. There
will be several homework sets handed out during the course of the semester. The
due date for each homework assignment is firm; no late homework will be accepted. You should write your answers
clearly.
• Exams – The
date and material for each exam will be announced at least 2 weeks in advance. No
make up exam will be given. If you have an university valid excuse you must
notify me before the exam. Medical emergency cases will be handled on
individual bases. The tentative date for the first exam is Monday,
October 5.
Your final grade will depend on each
of the components in the course. In particular, Assignments 25%, Three in class exams 25% each
Letter
grades will be awarded according to the following scale:
91-100%
(A), 88-90% (A-),
86-87% (B+), 81-85%(B), 78-80% (B-),
76-77% (C+), 71-75% (C), 68-70% (C-),
66-67% (D+), 61-65% (D), 55-60% (D-),
0-55% (F).
Electronic Communication
Course related announcements and all the assignments will be posted on SAKAI https://sakai.udel.edu/portal
You may
send me e-mail with questions regarding the course.
Academic Honesty
The
University has explicit rules on academic honesty that will be strictly enforced
in class. See for details
http://www.udel.edu/stuguide/09-10/code.html#honesty
A tentative list of topics to be covered
(the list of topics is subject to
changes and adjustments as needed)
Vector Calculus
· Gradient, Divergence and Curl (review).
· Multiple
integrals, change of variables
(review).
· Surface
and line integrals (review).
· Divergence
theorem, Stokes’ theorem, Green’s theorem.
·
Green’s first and second identities and applications.
Calculus
of Variations
· Overview,
some basic variational problems, function spaces, notion of a functional.
· Euler’s
equation and examples.
· Variational
derivatives, invariance of Euler’s equation.
· Lagrange
multipliers.
· Isoperimetric
problems.
· General
variation, second variation, Weierstruass-Edman conditions.
·
Variational problems
leading the PDE’s, direct methods.
Nonlinear
Dynamics
· Linear
systems, phase plane analysis.
· Limit
cycles and nonlinear oscillators.
· Introduction
to bifurcation theory and stability.
· The Lorenz equations and chaos.