Vector Analysis via Differential Forms
MTH 324, Spring 2015
Instructor
Jay Gopalakrishnan
Venue
Neuberger Hall 364
Times
Tue, Thu: 10:00 - 11:50am
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- Did you like calculus?
If so, you might enjoy this course. (If you struggled with
MTH 254, this course is not for you.)
In calculus, you differentiated
along 1-dimensional curves.
Way cool! |
You also analyzed
2-dimensional surfaces.
Super! |
You even integrated over
3-dimensional solids? You are a master! |
 |
 |
 |
Now take it to the next level:
- Wouldn't you like to know how to
integrate over curved n-dimensional objects?
If so, take this course and learn about
infinitesimal volumes on n-manifolds for any integer dimension $n \ge 1$,
even beyond the visualizable 3 dimensions.
In calculus, you learnt to compute all these integrals:
\[
\begin{aligned}
\int f \; dx,
&& \int_C \vec{F} \cdot d\vec{t},
&& \iint_D f \, d S,
&& \oint_{\partial D} P\, dx + Q\, dy,
\\
\int_a^b f\; dx,
&&
\oint_{\partial D} \vec{F} \cdot d\vec{t},
&&
\iint_S \vec F \cdot d \vec S,
&& \iiint_E f \; d V, \quad\ldots
\end{aligned}
\]
- Would you like to know a way to unify all these
integrals into one?
If so, come and learn about integrating forms
over manifolds.
Learning Outcomes
The goal of this course is to help students acquire facility
with calculations using differential forms and integrals over
manifolds in any dimension. The focus is not on proof
writing, but rather on calculational techniques.
Prerequisites
MTH 254, MTH 261.
Learning Methods
The learning material will
not come a single text, so
it will be particularly important to attend the lectures. You
are
not required to buy any textbook for this course.
Some materials covered in the lectures can be found in
references like these:
-
Differential Forms with Applications to the Physical Sciences
by Harley Flanders, 1989
- Calculus On Manifolds: A Modern Approach To Classical Theorems
Of Advanced Calculus
by Michael Spivak, 1971.
-
Vector Calculus, Linear Algebra, and Differential
Forms - A unified approach
4th Edition,
by John Hubbard & Barbara Hubbard, 2009.
The last book will be on reserve for this course in the
Millar Library. All other course materials, including
homeworks, and this page, are accessible from the D2L page
for the course. Students are required to make sure that
they receive emails sent to their D2L accounts.
Outline
In the first few lectures, the students will make the
transition, in notation and concepts, from earlier
multivariable calculus courses like MTH 254 to those
continually used in this course.
Then, viewing curves, surfaces, and solids as instances of
general "manifolds", we generalize the integrals over
curves and surfaces to a general integral over k-manifolds
in n-dimensions.
Differential forms are introduced early. By the end of the
course, the "Stokes theorem" will be learnt as one
statement that encompasses and generalizes multiple
theorems in MTH 254. Time permitting, we conclude by discussing
electromagnetism in the language of forms.
Teaching Assistant - Grader
Caitlin Graff [cgraff @ pdx.edu]
Office hours
Instructor is available Tuesdays 2pm-3pm (in NH 309)
or by appointment.
Evaluation
Homework will be given throughout the course. Students are
not required to turn in solutions. The entire grade is
determined by quizzes held in class. (There are no midterm or
final examinations.) The quizzes will be based on
the homework and their dates will be announced in class.
Jay Gopalakrishnan