PD Dr. Benjamin Doerr, Anna Huber, and Daniel Johannsen.
| Time: |
Tue & Thu, 16-19 (often shorter, negotiable, see below) | |
|---|---|---|
| Start: |
Tuesday, October 21, 2008 | |
| Room: |
024 in the MPI building (E1 4) | |
| Wiki: |
Randalg2008/09 WIKI
| |
| Content: |
Randomized methods can be a surprisingly powerful tool to find
good algorithms, both from the theoretical viewpoint and the application
one. In the course, we shall discuss several particular topics in this
area, some of which are simply "good to know" and most of which got
increased attention in the last few years. In other words, this is not
an encyclopedic coverage of the randomized algorithms, but rather an
in-depth course on selected topics. | |
| Course concept: |
We shall try a modified teaching concept.
Our starting point is the observation that in the classical lecture
concept, there is little interaction between teachers and students. This
is already visible from regarding how the time related to a two-hours
session is spent: The lecturer takes 2-4 hours preparing the lecture (at
home), then presents the outcome of this to the students in a highly
compressed form, and finally the students take 2-4 hours understanding
(decompressing) the content (again on themselves). Hence teacher and
students spend most of the time separately. In addition, the 2 hours of
lecture typically are not too interactive either, simply because
students often are overrun by the new content. While we do agree that learning needs quite some thinking about the content on your own, we feel that expertise of the teacher is not really used efficiently in the current concept. One way to overcome this is to omit the compression/decompression phase in classical university lecturing. Ideally, this should result in the following timing: Teacher prepares lecture (0-2 hours), interactive teaching (4 hours), student reiterate content at home (0-2 hours). Hence with identical workloads, hopefully a more efficient teaching is gained. To have some flexibility in timing, we reserve the time-slots Tuesday and Thursday 16-19 for both the lecture and the exercises, though the average time used will be shorter. Also note that, depending on the preferences of the participants, we might add extra lectures in November and December and thus finish before the Christmas break. All timing issues are negotiable in the first lecture. | |
| Credit: |
There will be exercises (both on-line and homework) included in
the lecture. Taking part in
these as well as contributing activly to the lecture yields admission to
a final, oral examination, which determines
the grade. The course counts as special lecture (2 hours) with exercises
(2 hours), which earns you 6 LPs. The interactive concept of the lecture allows that some participants earn credit as a seminar (7LP). Of course, they have to lecture to an extent comparable with a classical seminar. Whether you aim for credit as special lecture or seminar, we will ensure that the workload to earn the credit is comparable to a special lecture or seminar in the classical style. | |
| Prerequisites: |
No particular prerequisites are needed. The art of this
area is to use simple probabilistic methods to gain surprisingly strong
results. An intuitive understanding of probability theory should
suffice. However, this is a theory lecture, so some familiarity and fun
with proving things is necessary. | |
| Admission: | To facilitate discussion and interaction, we reserve the right to limit the number of participants. This will be discussed at the beginning of the first lecture. If you plan to participate, but cannot come to this lecture, contact Benjamin Doerr in advance. |