Please contact the instructor a.s.a.p. if you might at all be interested in this class.
This class uses the computer algebra system (CAS) MAPLE to study core concepts of classical differential geometry of curves and surfaces (in the plane and in 3-space).
Regarding computer algebra, this class is at an
intermediate level with an
applied, problem-solving oriented focus.
This means that the use of CAS is at a considerably higher level than
is typical for first and second year classes such as
single and multi-variable calculus (MAT 270, MAT 271, MAT 272), linear
algebra (MAT 342), and the first course in differential equations (MAT 274)
which typically employ only simple one/few-line-commands.
On the other hand this class is not an advanced course
that studies the theory of CAS per se as offered e.g. by the
Symbolic Computation Group at the University of Waterloo or the
Symbolic Computation Group at Florida State University.
or the newly instituted
Doctoral
program in symbolic computataion at RISC-Linz.
Theoretical CAS concepts and features will be addressed on an as-need-basis,
i.e., when they are important for advanced scientific applications.
This class teaches the intermediate level use of CAS in context -- i.e., it develops increasingly more advanced uses of CAS to study a specific subject. We have chosen to focus on core concepts of classical differential geometry, because this subject
Class format:
The class is expected to meet in a fully mediated classroom such as ECG 320
in which all students have access to a computer.
The class will be project-driven and students are generally expected
to work together in teams.
Rather than relying on traditional in-class paper-and-pencil exams,
assessment will generally be based on in-class participation and out-of-class
projects that are typically completed in teams.
Targeted audience:
Advanced undergraduate students and graduate students in mathematics,
the biological and physical sciences, and engineering.
Basically anyone who needs to perform nontrivial symbolic calculations
in course-work, thesis-work, or in the work-place.
If appropriate, late-in-the-course projects might substitute topics of
students' interest (e.g. partial differential equations) for the default
concentration on differential geometry.
Further information:
Visit the
WWW-site of a related spring 1998 class,
and the
collection of commented
MAPLE worksheets (cauuion: many of these are very old and outdated...).
The class will be cancelled if too few students register for the class by early December. Thus, please contact the instructor as soon as possible if you may at all be interested in this class in spring 2004. The best way to ensure that the class will run is to find a few like-minded students and talk them into taking this class together. The more committed and the larger this group is, the easier it is to ask for modifications of the course content.....