110.601-602 Algebra
110.604 Strategies for Computer-Assisted Mathematics Instruction
110.605 Real Variables
110.607 Complex Variables
110.611-612 Several Complex Variables
110.615-616 Algebraic Topology
110.617-618 Number Theory
110.619-620 Lie Groups and Lie Algebras
110.631-632 Partial Differential Equations
110.635-636 Microlocal Analysis
110.643-644 Algebraic Geometry
110.645-646 Riemannian Geometry
110.711-712 Quantum Cohomology
110.721-722 Homotopy Theory
110.723-724 Topics in Automorphic Functions
110.725-726 Topics in Analysis
110.727-728 Topics in Algebraic Topology
110.729-730 Topics in Several Complex Variables
110.733-734 Topics in Algebraic Number Theory
110.735-736 Topics in Hodge Theory
110.737-738 Topics in Algebraic Geometry
110.741-742 Topics in Partial Differential Equations
110.751-752 Topics in Group Representations
110.761-762 JAMI Seminar
110.799 Thesis Research
110.800 Independent Study, Graduate
110.601-602
Algebra
An introductory graduate course on fundamental topics in algebra to
provide the student with the foundations for Number Theory, Algebraic
Geometry, and other advanced courses. Topics include group theory,
commutative algebra, Noetherian rings, local rings, modules, rudiments
of category theory, homological algebra, field theory, Galois theory,
and non-commutative algebras. Prerequisites
110.403-404.
110.604 Strategies
for Computer-Assisted Mathematics Instruction
This course is designed to introduce teaching assistants to the Maple
program and to explore strategies using Maple in the teaching of
undergraduate mathematics. It may be required as a part of their normal
duties. Others may enroll only with permission of instructor.
110.605
Real Variables
Measure and integration on abstract and locally compact spaces
(extension of measures, decompositions of measures, product measures,
the Lebesgue integral, differentiation, L^p-spaces); introduction to
functional analysis; integration on groups; Fourier transforms.
Prerequisites:
110.405,
110.413, or equivalent.
110.607 Complex
Variables
Analytic functionsof one complex variable. Topics include
Mittag-Leffler Theorem, Weierstrass factorization theorem, elliptic
functions, Riemann-Roch theorem, Picard theorem, and Nevanlinna theory.
prerequisites: 110.311 and 110.405.
110.611-612
Several Complex Variables
Domains of holomorphy and pseudoconvexity, Levi pseudoconvexity. The
Weierstrass preparation and division theorems, properties of the local
ring of germs of holomorphic functions, complex analytic varieties, the
Ruckert Nullstellensatz. Sheaves and cohomology, coherent analytic
sheaves, Oka's coherence theorem, Dolbeault cohomology. Additional
topics such as Chow's theorem, L^2 cohomology, integral formulas,
Cartan's Theorems A and B, compact complex manifolds. Prerequisites:
110.412,
110.413. Recommended:
110.605-606.
110.615-616
Algebraic Topology
Polyhedra, simplicial and singular homology theory, Lefschetz
fixed-point theorem, cohomology and products, homological algebra,
Künneth and universal coefficient theorems, Poincar&ecute; and Alexander
duality theorems. Prerequisites:
110.403,
110.413.
110.617-618
Number Theory
Topics in advanced algebra and number theory, including local fields and
adeles, Iwasawa-Tate theory of zeta-functions and connections with
Hecke's treatment, semi-simple algebras over local and number fields,
adele geometry. Prerequisites:
110.403-404.
110.619-620 Lie
Groups and Lie Algebras
Lie groups and Lie algebras, classification of complex semi-simple Lie
algebras, compact forms, representations and Weyl formulas, symmetric
Riemannian spaces. Prerequisite:
110.404.
110.631-632
Partial Dffferential Equations
An introductory graduate course in partial differential equations.
Classical topics include first order equations and characteristics, the
Cauchy-Kowalevski theorem, Laplace's equation, heat equation, wave
equation, fundamental solutions, weak solutions, Sobolev spaces, maximum
principles. The second term focuses on special topics such as second
order elliptic theory. Prerequisites:
110.605-606.
110.635-636
Microlocal Analysis
Microlocal analysis is the geometric study of singularities of
solutions of partial differential equations. The course will begin by
introducing the geometric theory of (Schwartz) distributions: Fourier
transform and Sobolev spaces, pseudo-differential operators, wave front
set of a distribution, elliptic operators, Lagrangean distributions,
oscillatory integrals, method of stationary phase, Fourier integral
operators. The second semester will develop the theory and apply it to
special topics such as asymptotics of eigenvalues/eigenfunctions of the
Laplace operator on a Riemann manifold, linear and non-linear wave
equation asymptotics of quantum systems, Bochner-Riesz means, maximal
theorems. Prerequisites: 110.605-606. Recommended: 110.631.
110.643-644
Algebraic Geometry
Affine varieties and commutative algebra. Hilbert's theorems about
polynomials in several variables with their connections to geometry.
General varieties and projective geometry. Dimension theory and smooth
varieties. Sheaf theory and cohomology. Applications of sheaves to
geometry; e.g., the Riemann-Roch Theorem. Other topics may include
Jacobian varieties, resolution of singularities, geometry on surfaces,
schemes, connections with complex analytic geometry and topology.
Prerequisites: 110.601-602.
110.645-646
Riemannian Geometry
Differential manifolds, vector fields, flows, Frobenius' theorem.
Differential forms, DeRham's theorem, vector bundles, connections,
curvature, Chern classes, Cartan structure equations, Riemannian
manifolds, Bianchi identities, geodesics, exponential maps. Other topics
as time permits, e.g. harmonic forms and Hodge's theorem, Jacobi
equation, variation of arc length and area, Chern-Gauss-Bonnet theorems.
Prerequisites:
110.405,
110.413.
110.711-712
Quantum Cohomology
Quantum cohomology is the currently fashionable name for a way of
organizing recent new insights into a large class of nonlinear global
problems in the calculus of variations. Work of Gromov, Floer, Witten,
and others on an infinite-dimensional version of Morse theory leads to
new kinds of invariants for geometrical structures, with applications
including the enumeration of rational curves on classical algebraic
varieties, new invariants of four-manifolds, proof of Arnold's
conjecture on stationary points of dynamical systems, as well as to
questions motivated by quantum field theory. Although the results are
formulated in the language of algebraic topology, the theory of elliptic
differential equations is the main technical tool. Prerequisites: some
knowledge of ordinary cohomology and some familiarity with either PDE or
differential geometry.
110.721-722
Homotopy Theory
Homotopy groups, fiber spaces, fiber bundles, Hurewicz isomorphism
theorem, local coefficients, spectral sequences, cohomology operations,
obstruction theory, Postnikov systems. Prerequisites:
110.615-616.
110.723-724 Topics in Automorphic Functions
110.725-726 Topics in Analysis
110.727-728 Topics in Algebraic Topology
110.729-730 Topics in Several Complex Variables
110.733-734 Topics in Algebraic Number Theory
110.735-736 Topics in Hodge Theory
110.737-738 Topics in Algebraic Geometry
110.741-742 Topics in Partial Differential Equations
110.751-751 Topics in Group Representations
110.761-762
JAMI Seminar
This course focuses on the topic chosen for the
Japan-U.S. Mathematics Institute (JAMI) Workshop and Conference held
each year in March/April.The topic for 1996-97 is "Elliptic curves and
Arithmetic Geometry." Students will be required to read and work through
current research papers and attend seminar talks.
110.799 Thesis Research
110.800 Independent Study, Graduate
Cross-Listed
171-710 Lie Groups and Quantum Mechanics