University of Illinois at Urbana-ChampaignDepartment of Mathematics
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Timetable Information for Fall 2008

Topics Courses 595 Mini Courses

Algebra

Course Section CRN Title
Math 012 AD1 40212 Algebra
Math 012 AD2 40213 Algebra
Math 012 AD4 40215 Algebra
Math 012 AD5 40216 Algebra
Math 012 AD6 40219 Algebra
Math 012 AD7 50001 Algebra
Math 012 AL1 32266 Algebra

These seven sections will have common semester exams: Wednesdays: September 24, October 22, and November 19


Precalculus

Math 115 - All sections will have common evening exams. Dates to be announced. Please check back.


Finite Mathematics Classes

Course Section Course Reference Number Title, Instructor and Description
Math 124 B1 32037 Finite Mathematics
Math 124 C1 32036 Finite Mathematics
Math 124 E1 45900 Finite Mathematics
Math 124 F1 32038 Finite Mathematics
Math 124 X1 32040 Finite Mathematics

These five sections will have common semester exams: Wednesdays: September 24, October 22, and November 19


Discovery Courses

Course Section Course Reference Number Title, Instructor and Description
Math 181 LCD C1 49141

Numeracy
THIS COURSE COUNTS TOWARD THE CAMPUS WIDE GENERAL EDUCATION QUANTITATIVE REASONING I REQUIREMENT.

DESCRIPTION: This course is for students whose major interests are not in engineering or the physical sciences. It emphasizes understanding of mathematical aspects of modern, real-world problems, and includes topics such as combinatorics, exponential growth, and probability and statistics. Emphasis is given to the development of problem-solving strategies. CREDIT: 3 Hours.

INSTRUCTOR: Professor Bruce Reznick
Bruce Reznick is a Professor in the UIUC Department of Mathematics. His degrees are from Caltech (B.S., 1973) and Stanford (Ph.D., 1976). He has been on the faculty of the University of Illinois since 1979. He was a Sloan Foundation fellow from 1983-1986, and received the Prokasy Award for Excellence in Undergraduate Teaching from his College in 1997. His research interests are in number theory, real algebraic geometry, and combinatorics.

Math 220 LCD GE1
LAB GB1
33484
34404

Calculus
THIS COURSE COUNTS TOWARD THE CAMPUSWIDE GENERAL EDUCATION QUANTITATIVE REASONING I REQUIREMENT.

DESCRIPTION: This is the first semester of a three-semester sequence in calculus. The course is designed to emphasize the conceptual as well as the computational aspects of calculus. To complement brief formal lectures, the majority of class time is spent working actively on problems in small groups. A weekly two-hour lab further develops and strengthens each student's understanding of concepts and applications of calculus.CREDIT: 5 Hours

INSTRUCTOR: Professor Alexandru Zaharescu
Alexandru Zaharescu is a Professor in the UIUC Department of Mathematics. His degrees are from the University of Bucharest (B.S., 1986) and Princeton University (Ph.D., 1995). Since then, he has held positions at M.I.T., McGill University, and the Institute of Advanced Study in Princeton, before joining the University of Illinois at Urbana-Champaign in 2000. His research interests are in number theory.


Honors Calculus

Course Section Course Reference Number Title and Description
Math 241 F1H 46943 Calculus III
Math 241 G1H 48133 Calculus III

Math 231 requires concurrent registration in the associated section of MATH 249 listed above.


Honors Sequence

Course Section Course Reference Number Title and Description
Math 424 X 47761

Honors Real Analysis

Math 427 G 49850

Honors Abstract Algebra

More information about the Honors Sequence in Mathematics can be found at http://www.math.uiuc.edu/UndergraduateProgram/curricula/honors_sequence.html


Merit Worshop Classes

Course Section Course Reference Number Title and Description
Math 220 BD7 35101 Calculus
Math 220 DD6 33443 Calculus
Math 220 DD8 33434 Calculus
Math 221 AD2 46995

Calculus I

Math 221 AD6 46999

Calculus I

Math 221 DD2 47025

Calculus I

Math 221 DD9 51990

Calculus I

Math 231 DD8 49238

Calculus II

Math 231 W1 46916

Calculus II

Math 231 W2 46918 Calculus II
Math 241 AD6 47042

Calculus III

Math 241 AD7 50384

Calculus III

Math 241 CD6 51991

Calculus III

The Merit Workshop is an interactive group learning environment for selected students. For a detailed description of the format of a Merit worshop class, consult the Merit Class description. For general information regarding the Merit Workshop Program, consult the Merit Program Website

Registration in Merit Workshop sections requires approval from the Merit Workshop Director (see contact information below). Concurrent enrollment for 2 hours of credit in the Merit Section of Math 199 is required for Math 220. Concurrent enrollment for 1 hour of credit in the Merit Section of Math 199 is required for Math 230 and Math 242.

Merit Workshop Director: Jennifer McNeilly
178 Altgeld Hall
217-244-1659
jrmcneil@math.uiuc.edu


Active Learning Calculus Classes

Course Section Course Reference Number Title and Description
Math 220 GE1 33484 Calculus
Uses small group learning methods.
Math 220 GB1 34404

Calculus
Small group learning lab concurrent with Math 220 GE1

Math 231 EE1 46911

Calculus II
This is a First Year Discovery Program course. Uses small group learning methods.

Math 231 EB1 46910

Calculus II
Small group learning lab concurrent with Math 231 EE1

The Active Learning Calculus sequence is an environment open to all students. It uses guided reading assignments, group problem solving, and graphing calculators. Each active learning class has an associated 2 hour lab. For a detailed description of the format of a active learning class, consult the Active Learning Class description.


Calculus and Mathematica Classes

Course Section Course Reference Number Title, Instructor and Description
Math 220 B8 34508

Calculus
Restricted to students in the Life Sciences.
For a description of this course, see C&M Math 220

Math 220 C8 51356

Calculus
For a description of this course, see C&M Math 220

Math 220 E8 33481

Calculus
For a description of this course, see C&M Math 220

Math 225 T8 34438

Introductory Matrix Theory
This is an eight week course, meeting 20-OCT-08 - 10-DEC-08
For a description of this course, see C&M Math 225

Math 231 X8 46919

Calculus II
For a description of this course, see C&M Math 231

Math 241 B8 51357

Calculus III
For a description of this course, see C&M Math 241

Math 241 X8 49256

Calculus III
For a description of this course, see C&M Math 241

Math 285 E8 51210

Intro Differential Equations
For a description of this course, see C&M Math 285

Math 285 F8 51209

Intro Differential Equations
For a description of this course, see C&M Math 285

Math 286 X1 51355

Intro Differential Equations
For a description of this course, see C&M Math 285

Math 286 Z8 51982 Intro Differential Equations
This is an asynchronous course. It does not have a regular meeting place or meeting time and is intended for students who wish to take the course in an independent study mode. Consult Debra Woods for further information. For a description of this course, see C&M Math 286
Math 380 Z8 40194 Advanced Calculus
This is an asynchronous course. It does not have a regular meeting place or meeting time and is intended for students who wish to take the course in an independent study mode. Consult Debra Woods for further information. For a description of this course, see C&M Math 380
Math 415 F83 34393

Applied Linear Algebra
For a description of this course, see C&M Math 415

Math 415 F84 39119

Applied Linear Algebra
For a description of this course, see C&M Math 415

Math 415 Z83 40196

Applied Linear Algebra
This is an asynchronous course. It does not have a regular meeting place or meeting time and is intended for students who wish to take the course in an independent study mode. Consult Debra Woods for further information.
For a description of this course, see C&M Math 415

Math 415 Z84 46444

aPPLIED Linear Algebra
This is an asynchronous course. It does not have a regular meeting place or meeting time and is intended for students who wish to take the course in an independent study mode. Consult Debra Woods for further information.
For a description of this course, see C&M Math 415

Math 461 G83 33569

Probability Theory I
For a description of this course, see C&M Math 461

Math 461 G84 39136

Probability Theory I
For a description of this course, see C&M Math 461

Calculus & Mathematica courses involve learning a subject through extensive computer interaction using Mathematica software. For a detailed description of the format of a Mathematica class, consult the Mathematica Class description. For general information regarding the Calculus & Mathematica Program, consult the Calculus & Mathematica Program Website

Students registering in a Calculus & Mathematica class are permitted to register in an associated section of Math 290 on a one-time basis for an additional hour of credit. See Math 290, Symbolic Computation Lab.

 


Topics Courses

Course Section CRN Title and Description
Math 198 F1H 51385

Freshman Mathematics Seminar: Complex Geometry
This elementary course will reveal mathematics as both an art and a science. We will work within the realm of the complex numbers to provide beautiful new perspectives on geometry. We will develop complex numbers from the start, discuss the geometry of the unit circle to simplify trigonometry and to understand Pythagorean triples, and we will see the Fibonacci numbers at work. We will discuss how and why complex numbers arise in geometry and physics by introducing complex line integrals and their applications. Considerable emphasis will be placed on both oral and written exposition. In about half of the classes students will present solutions to the problems posed in the course. We will strive for elegance in our thought processes, calculations, and exposition. I hope to recruit a few students into the Mathematics Honors program. There is no required text. On occasion students will need to augment what is done in class by outside reading from easily accessible sources.

Instructor: John P. D'Angelo is Professor of Mathematics at UIUC. He received his PhD in Mathematics from Princeton University and was a Moore Instructor at MIT before coming to UIUC. He was named a University Scholar at UIUC in 1986, won the Stefan Bergman Prize in 1999 for his research in complex analysis, and won the LAS Dean's Award for Excellence in Undergraduate Teaching at UIUC in 2005. He is currently a Kenneth D. Schmidt Professorial Scholar at UIUC. He has been named to the Incomplete List of Professors ranked excellent by their students at least fifteen different times, most recently in 2007. He has authored three mathematics books and sixty research papers. His primary research interests are in several complex variables and CR geometry. He enjoys the mathematics appearing in the financial and sports sections of newspapers and he plays the game oriental game go (wei-qi, baduk). He views mathematics as both and art and a science and loves to convey both aspects to students. In recent years D'Angelo has been actively involved in teaching in the Mathematics Department Honors Program.

Math 199 CHP 47745

Undergraduate Open Seminar
This is a course on the connections of mathematics with music and art. We will explore harmony [and dissonance], temperaments, and counterpoint in music. Topics in art will include frieze designs, "wallpaper patterns" -- as used by M. C. Escher, and perspective. All of these topics are directly connected with mathematics and investigating them enriches our understanding of both sides of the connection. These topics will lead to a deeper understanding of symmetry in general. We will look around to find some nearby mathematical gems such as why the square root of two is irrational [which has a lot to do with music] and the bridal veil proof of the Pythagorean theorem [which has little to do with either art or music]. There will be ample opportunity to exhibit musical and artistic skills as well as mathematical ones.

Instructor: E. Graham Evans, Jr. has been on the faculty of UIUC since the Fall of 1972. He has written dozens of articles and co-authored three books in the study of commutative rings and the solutions to polynomial equations. He won an Alfred P. Sloan Fellowship, which enabled him to study at the IHES in Paris in the academic year 1975-76. In the 1980's he developed and taught in-service mathematics teachers summer institutes in the mathematics department. These pioneered the use of personal computers in the mathematics classroom. He served on the Research Board of the university during the academic years '96-'97 and '97-'98. In the Fall of 1999 he assumed the position of Director of Undergraduate Programs in the Mathematics department. HE HELD THIS POSITION UNTIL HE RETIRED IN 2004. In 2002 he was awarded the Campus Honors Program Broadrick-Allen Award for Excellence in Honors Teaching. He is an amateur cellist and cook.

Math 199 FTM 50300 Undergraduate Open Seminar: Preparing Future Teachers of Mathematics
This service learning course is designed for students interested in becoming middle school or high school teachers, and for students who would like to be more involved in mathematics education. Topics will include methods for conducting effective tutorials and meeting the pedagogical needs of a diverse student body. A criminal background check will be required, and students who pass will be required to participate in tutoring sessions at Urbana High School for two hours a week. Participation in weekly discussions, readings, reflective writing assignments, and tutoring sessions will be the basis for grades in the course. This course is strongly recommended for math majors interested in being admitted to the Secondary Education Minor. 1 hour. Prerequisite: C or better in Math 220.
Math 199 JMM 50395 Undergraduate Open Seminar
For Merit Workshop students only. Visit the Merit Workshop Program webpage.
Math 199 JMT 50397 Undergraduate Open Seminar
For Merit Workshop students only. Visit the Merit Workshop Program webpage.
Math 199 JMW 50389 Undergraduate Open Seminar
For Merit Workshop students only. Visit the Merit Workshop Program webpage.

Math 595 Graduate Topics Courses

Course Section Course Reference Number Title, Instructor and Description
Math 595 ADS 51374 Advanced Descriptive Set Theory (C. Rosendal)
description to be posted.
Math 595 AG2 42955 Algebraic Geometry II (W. Haboush) This course will be based on the third chapter of Hartshorne, Algebraic Geometry. After a brief recollection of the geometry of projective schemes, I will give a brief overview of homological algebra. Then I will discuss injective and flabby (flasque) sheaves and cohomology as the right derived functor of global sections. Then I will discuss Cech cohomology and I will explicitly compute the cohomology of projective space. Then I will discuss Serre duality, smooth and etale morphisms and flatness. Time permitting, I will discuss birational morphisms, Zariski's main theorem and the semicontinuity theorem.
Math 595 ANT 51380 Additive Number Theory (K. Ford)
Prerequisites: Math 53l/equivalent or consent of the instructor Recommended Text: There is no official text for the course, but the following books contain much of the material. 1. Sequences, 2nd ed., by H. Halberstam and K. F. Roth, Springer-Verlag, New York- Berlin, 1983. 2. Additive Number Theory: The classical bases, by M. Nathanson, Springer GTM 164, 1996; Additive Number Theory: Inverse problems and the geometry of sumsets, by M. Nathanson, Springer GTM 165, 1996. 3. The Hardy-Littlewood method, 2nd ed., by R. C. Vaughan, Cambridge Tracts in Mathematics, vol. 125, 1997. Full course description at http://www.math.uiuc.edu/timetable/595KF_fall08.pdf
Math 595

CD

 

51375 Complex Dynamics (A. Hinkkanen)
Prerequisite: Math 542. Full course description is at http://www.math.uiuc.edu/timetable/595CD_fall08.pdf
Math 595 CFT 39222 Class Field Theory (S. Ullom)
Let K be an extension field of the rationals of finite degree. Class field theory is the study of all abelian extensions of K, that is, Galois extensions L of K such that the Galois group is an abelian group. By the Kronecker-Weber theorem every abelian extension of the rationals is a subfield of a field of roots of unity. Via the Artin symbol we will prove a general reciprocity law and derive the quadratic reciprocity and cubic reciprocity laws as special cases. We will develop the basic properties of abelian L-series and use these to outline the proofs of the main results of class field theory. Rather than prove every result in detail we will give several applications such as the local-global principle for quadratic forms over number fields. We will prove that the ideal class group of K is isomorphic via the Artin map to the Galois group over K of the maximal abelian extension of K that is unramified at all primes of K. Considerable emphasis will be on working out specific examples of class fields which illustrate general theory. Prerequisite: Math 530 or equivalent background in algebraic number theory. Recommended text: S. Lang, Algebraic Number Theory (not required). Jim Milne's notes available on the web are a good source.
Math 595 GFV 52315  Generalized Flag Varieties (W. Haboush) The geometry and representation theory of generalized flag varieties. The Bruhat decomposition, the Borel Weil theorem, the Kempf vanishing theorem, structure theory and intersection theory of generalized Schubert cells, Bott Samelson desingularizations, the Weyl and Demazure character formulae, the Chow ring and the Grothendieck ring of the generalized flags. The course will be self contained and will not require extensive knowledge of algebraic groups.Other topics in the structure theory of flag varieties.
Math 595 HA 49180 Homological Algebra II (I. Mineyev)
Among the intended topics: some applications of the Leray-Serre and Lyndon- Hochschild-Serre spectral sequences, cup product, Gysin sequence, Kunneth formula for complexes, universal coecients theorem, Eilenberg-Moore spectral sequence, the generalized Mayer-Vietoris spectral sequence, homology of groups with coecients in a chain complex, equivariant homology, homology of amalgamations and HNN extensions of groups, Adams spectral sequence for stable homotopy groups of spheres.
Math 595

MT

 

51377 Morse Theory (E. Kerman)
Morse theory is the study of the relation between the functions on a space and its topology. It is an extremely powerful tool which plays an important role in many areas of geometry and topology. Some applications of Morse theory include; Smale’s proof of the Poincare conjecture in dimensions greater than four, the Bott periodicity theorem, and several theorems on the existence of closed geodesics. In this course we will first discuss the basic machinery of Morse theory starting with the material described in Milnor’s classic text. We will also study Morse-Bott theory, and the Morse theory of manifolds with boundary. We will then discuss the modern formulation of these ideas due to Thom, Smale, Witten and Floer. This goes under the name of Morse homology, and is a finite-dimensional model of Floer homology. The remainder of the class will be devoted to applications of these tools. These will be chosen according to the tastes of the participants and are subject to the limitations of the instructor. They may include; the existence of closed geodesics, the Bott periodicity theorem, the Morse theory of moment maps in symplectic geometry, and the Morse-Novikov theory of closed one–forms. Prerequisites: The prerequisites for this class are basic differential topology and algebraic topology at the level of Guillemin and Pollack’s book Differential Topology and Vassiliev’s book Introduction to Topology. If you have taken Math 520 you should be well equipped for this class. Reference (Suggested): Morse Theory by J.W. Milnor, Annals of Math. Studies, vol. 51, Princeton University Press, 1963.
Math 595

PM

 

46715 Advanced Methods in Probabilistic Combinatorics (J. Balog)
The Probabilistic Method is a powerful tool in tackling many problems in discrete mathematics. It belongs to those areas of mathematics which have experienced a most impressive growth in the past few decades. This course provides an extensive treatment of the Probabilistic Method, with emphasis on methodology. We will try to illustrate the main ideas by showing the application of probabilistic reasoning to various combinatorial problems. The topics covered in the class will include (but are not limited to): Linearity of expectation, the second moment method, the local lemma, correlation inequalities, martingales, large deviation inequalities, Janson and Talagrand inequalities, pseudo-randomness, random graphs, random regular graphs, Szemeredi Regularity Lemma, percolation, bootstrap percolation. TEXTBOOKS: Most of the topics covered in the course appear in the books listed below (especially the first one). Other topics appear in recent papers. The Probabilistic Method, by N. Alon and J. H. Spencer, 2nd Edition, Wiley, 2000. (Note that 3rd edition might be coming out soon); Random Graphs, by B. Bollobas, 2nd Edition, Cambridge University Press, 2001; Random Graphs, by S. Janson, T. Luczak and A. Rucinski, Wiley, 2000; Graph Coloring and the Probabilistic Method, by M. Molloy and B. Reed, Springer, 2002. PREREQUISITES: There are no official prerequisites, but students need the mathematical maturity and background for graduate-level mathematics. For example, basics of linear algebra, probability and graph theory are assumed to be known.
Math 595 SFM 51373 Symmetric Functions and Macdonald Polynomials (R. Kedem)
Symmetric polynomials are basic objects in representation theory, commutative algebra, algebraic geometry, combinatorics and mathematical physics. Despite their simple definition, there are many interesting applications, connections and open problems. Macdonald polynomials are currently the most active subject of research in this field. The course will start with the basics of symmetric functions (for example, as covered in the Appendix to Fulton and Harris, Representation Theory, or Macdonald’s classic and highly recommended book on Symmetric Functions and Hall Polynomials). We will approach the subject of Macdonald polynomials from the combinatorial and the algebraic points of view. We will also introduce the geometric point of view when appropriate. Students are assumed to have some basic knowledge of the definitions of Lie algebras and representation theory. The course will introduce some problems suitable for graduate research. Text: Handouts will be distributed. Recommended: I. Macdonald, Symmetric functions and Hall polynomials. Prerequisites: Some knowledge of Lie algebras.
Math 595 SG 42972 Symplectic Geometry (A. Malkin)
Symplectic geometry studies manifolds equipped with a closed non-degenerate differential 2-from (symplectic form). Such manifolds arise in many contexts: classical mechanics, quantization, microlocal analysis of PDEs, Kahler geometry, mirror symmetry, etc.. This course provides a gentle introduction to symplectic geometry. It covers basic concepts: symplectic linear spaces and manifolds, Lagrangian submanifolds, local structure, symplectomorphisms group, Hamiltonian dynamics, symmetries and reduction. More advanced topics such as quantization, nonsqueezing theorem, toric manifolds, will also be mentioned but without complete proofs. The only prerequisite is basic differential geometry: manifolds, vector fields, differential forms.
       
       
       

Math 595 Mini Courses

Session I: August 25 – October 18, 2008
Session II: October 20- December 10, 2008

Session Time/CRN and Section Title, Instructor and Description
I
MWF 9-:9:50 a.m.
CRN 51368, Section CVO
Culler-Vogtmann Outer Space([I. Kapovich)
Full course description is at http://www.math.uiuc.edu/timetable/595CVO_fall08.pdf
II
MWF 9-9:50 a.m.
CRN 51371, Section VAM
Vertex Algebras and the Monster Group (M. Bergvelt)
This is a short course (meets 20-Oct-08 - 10-Dec-08). The Monster group is the largest of the 26 sporadic finite simple groups. The Monster group is related to modular functions, a basic topic in number theory. The group is the symmetry group of the Moonshine Module, a vertex algebra. Vertex algebras are the building blocks of conformal field theories, a fundamental topic in string theory. The aim of the course is to give an accessible introduction to these topics. Recomended background reading: • Gannon, Moonshine Beyond the Monster, Cambridge University Press.
II
MWF 1-1:50 p.m.
CRN 52329, Section DS
Dynamical Systems and Ergodic Theory (J. Rosenblatt)
This mini-course is meant to introduce the ideas and
basic theorems of dynamical systems and ergodic theory. The rst goal
will be to understand the Ergodic Theorem in its norm and pointwise
versions, and to see how these results are related to similar results
for martingales and Lebesgue derivatives. The second goal will be
to describe the structure of a variety of dynamical systems (ergodic,
weakly mixing, strongly mixing, etc.) and to understand which of these
types are typical, which are common, and which are rare. The third
goal, as time allows, will be to survey how various recurrence theorems
for dynamical systems have played a role in both combinatorics and
number theory.
Reference materials: The text \Ergodic Theory" by Karl Petersen
provides a basic introduction to ergodic theory. Another text that
would be good for the last part of the course is \Recurrence in ergodic
theory and combinatorial number theory" by Hillel Furstenberg. See
Joe Rosenblatt's homepage in the online departmental faculty pages,
and go to the link to publications, to view a range of articles by the
lecturer on these subjects.
Required Background: Some experience in analysis and a knowledge
of Lebesgue measure (even just on Euclidean spaces) is enough
background for this course. The rest of the background needed will
be provided through lectures or recommended reading as the course
progresses.

Course Catalog
 |  Course Schedule

Department of Mathematics
273 Altgeld Hall, MC-382
1409 W. Green Street, Urbana, IL 61801 USA
Telephone: (217) 333-3350    Fax: (217) 333-9576     Email: office@math.uiuc.edu