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Graduate Courses in Mathematics
*PT:Pure+Thesis,
PN:Pure+Nonthesis, IT:Industrial+Thesis, IN:Industrial+Nonthesis,
TM:Teaching Mathematics, DL:Distance Learning
*R = Required course,
N
= Need to pick three courses in each track,
2 = need to take twice
Courses
Descriptions
MATH
5304 FOUNDATIONS OF MATHEMATICS
This
course presents elements of mathematical logic, set theory, number
theory and selected topics from Discrete Mathematics such as
Combinatorial Analysis and Graph Theory. Mathematics proofs are
emphasized. Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5309 INTEGRATING TECHNOLOGY INTO MATHEMATICS
This
is an introductory course related to the latest technological computer
programs, especially in Mathematics. The students become familiar with a
representative sample of the technology currently available for
industry, and will be able to publish mathematical articles both on-line
and off-line. They also will be enabled todecide how to use technology
in industry. Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5321 HIGHER ALGEBRA
The
purpose of this course is to provide the necessary algebraic
backgroundfor all branches of modern Mathematics that use algebraic
language and methods (in particular number theory and Algebraic
Geometry). Topics include basic ring theory (primes and irreducible ring
elements, prime ideals and maximal ideals, integral ring extensions,
Noetherian and Dedekind rings, polynomial rings over Noetherian rings
(Hilbert's Basissatz)), field extensions, and basic Galois theory with
the usual applications to classical problems in geometry. Prerequisite:
6 SCH of MATH 4000-courses.
MATH
5323 GROUP THEORY
The
purpose of this course is to provide students with a concept, which
arises naturally in almost every mathematical area, but also in Physics
and Chemistry, the notion of a group. The course will cover at least one
of the essential aspects of modern group theory, finite group theory,
algebraic group theory, or combinatorial group theory. In the first
case, the course will include the theorems of Jordan-Holder, Sylow, and
Schur-Zassenhaus, the treatment of the generalized Fitting subgroup, a
first approach to solvable as well as simple groups (including the
theorems of Ph.\ Hall and Burnside). Prerequisite: MATH 5321 or consent
of instructor.
MATH
5327 LIE ALGEBRAS
This
course is an introduction to the classical theory of Lie algebras.
Topics include root systems, the Weyl group, nilpotent and solvable Lie
algebras, the theorems of Lie and Engel, Cartan subalgebras, Cartan's
criterion for semi-simplicity, Chevalley groups and groups of Lie
type.Prerequisite: MATH 5321 or consent of instructor.
MATH
5329 NUMBER THEORY
This
course focuses on analytical or algebraic number theory. In the first
case, the course covers arithmetic functions (Moebius, Euler, Dirichlet),
Dirichlet series (convergence, uniqueness, multiplicative property)
distribution of primes (Dirichlet, Tchebycheff, Hadamard resp. de la
Vallee-Poussin), Riemann's zeta function. In the second case, the course
focuses on algebraic number fields, Dedekind domains, and the class
group. Prerequisite: MATH 5321 or consent of instructor.
MATH
5331 HIGHER GEOMETRY
This
course will be on Projective, Algebraic or Convex Geometry. Projective
Geometry includes basic incidence geometry, group actions on geometries,
ternary rings and coordinates in projective and affine geometries, and
the Fundamental Theorem of Projective Geometry. Algebraic Geometry
includes basic facts on algebraic curves, the relationship between
algebraic sets and radical ideals, Hilbert's Nullstellensatz.
Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5337 DYNAMICAL SYSTEMS
The
main goal of this course is to understand the long term behavior of
states in a system for which there is a deterministic rule for how a
state evolves. The evolution of the state of the system may be very
different, such as stability and instability/bifurcation/catastrophe;
controllability and stabilizability; observability and detectability;
isolations and attractors; oscillations and chaos. In this course we
will focus on the linear control systems and preliminary nonlinear
control systems. Prerequisite: MATH 5331 or consent of instructor.
MATH
5339 TOPOLOGY
The
course treats both the general and the algebraic aspects of topology. It
covers topological spaces, continuous mappings, connectedness and
compactness, the fundamental group, covering spaces, the Jordan Curve
Theorem and a classification of surfaces. Prerequisite: MATH 5341 or
consent of instructor.
MATH
5341 HIGHER ANALYSIS
This
course presents the system of the real numbers and the system of the
complex numbers, sequences and series of real numbers, continuity and
differentiability of real functions, convergence of sequences and series
of functions, aspects of functions in several variables, the
Riemann-Stieltjes integral and an introduction to Lebesgue theory.
Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5342 MEASURE AND INTEGRAL THEORY
The
course presents the Lebesgue Theory, abstract integration, Borel
measures, Lebesgue spaces, integration of differential forms.
Prerequisite: MATH 5341.
MATH
5346 FUNCTIONAL ANALYSIS
This
course introduces to topological vector spaces. It presents the theory
of Hilbert spaces, Banach space techniques and their applications, and
basic facts on operator theory and spectral theory. Prerequisite: MATH
5342 or consent of instructor.
MATH
5348 DIFFERENTIAL EQUATIONS
This
course covers first order and higher order ordinary differential
equations, systems of solutions of linear differential equations, the
Laplace transform, and several basic concepts of partial differential
equations. Prerequisite: 6 SCH of MATH 4000-courses or 3 SCH of MATH
5000-courses.
MATH
5361 MATHEMATICAL MODELING
In
this course, we shall not deal with a specified mathematical theory.
Instead, the students will learn how to develop mathematical models
which reflect the real world problems. It may include modeling with
difference and differential equations or with stochastic processes. The
course may be project-oriented. Prerequisite: 6 SCH of MATH
4000-courses.
MATH
5362 GRAPH THEORY
This
course provides the student with the basic ideas of graph theory as it
is used in many branches of Industrial Mathematics. It contains Ramsey
Theory, spanning trees, decision trees, matching theory, graphcoloring,
traveling salesman problems, networks, min-max theorems, flows,
Ford-Fulkerson. Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5363 OPERATIONS RESEARCH
This
course emphasizes fundamental concepts and principles as well as
algorithms in Operations Research. The topics are Linear Programming
(simplex and its variations), integral programming (cutting plane
method, 0-1 style and assignment problems), non-linear programming
(gradient, conjugate gradient, penalty functions, patterns), dynamic
programming, networks, queuing theory, inventory theory, decision
theory, game theory. In this course, students will be required to
participate in projects. Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5365 DISCRETE MATHEMATICS
This
course is on the borderline between Mathematics and Computer Science. It
contains basic graph theory (flows, min-max, Ford-Fulkerson), generating
functions, (Convolutions, Dirichlet's generating function, Riemann's
zeta function), design theory, basic facts on coding theory (minimal
distance, Reed-Solomon Codes), combinatorial optimization, elements of
asymptotics (O-notation, O-manipulation), and complexity of algorithms.
Prerequisite: 6 SCH of MATH 4000.
MATH
5367 NUMERICAL ANALYSIS
This
course deals with solutions of equations, interpolation and
approximation, numerical differentiation and integration, numerical
aspects of linear algebra, and with solutions of ordinary differential
equations. Prerequisite: MATH 5341 or consent of instructor.
MATH
5368 CODES, CYPHERS, AND SECURITY IN COMMUNICATIONS
This
course addresses two related problems in communications theory. The
first deals with errors that occur in the transmission of information;
how they can be detected and how they can be corrected. The second is
concerned with the security of transmitted information. Prerequisite: 6
SCH of MATH 4000-courses.
MATH
5375 MEASURE AND PROBABILITY
This
course is an introduction to measure-theoretic probability theory.
Topics covered include sets and events, monotone sequences, algebras,
sigma-algebras, probability spaces, Borel sets and Lebesgue measure;
measurable functions and random variables, independence, Borel-Cantelli
lemma, Kolmogorov's zero-one law; Lebesgue integral and expectation;
different types of convergence, laws of large numbers, characteristic
functions and the central limit theorem. Prerequisite: MATH 5341.
MATH
5379 STOCHASTIC ANALYSIS
The
main objective of this course is to study discrete stochastic processes
and their applications. The principal topics discussed include Markov
process and Markov chains; transient and persistent states, irreducible,
aperiodic chains, stationary distributions, convergence theorems, random
walks on a lattice, stopping times, Ehrenfest chain, birth and death
chains, Bernoulli-Laplace model of diffusion. Martingales, super and
submartingales, reversed martingales, connection between martingales and
Markov process, gambling systems, fundamental theorems of mathematical
finance, trading strategies, viable markets, and market models.
Prerequisite: MATH 4374 or consent of instructor.
MATH
5381 MATHEMATICAL STATISTICS
This
is a course in inferential statistics. Topics include random sampling,
distribution of means and the central limit theorem, estimation
problems, tests of hypotheses, linear regression, correlation, analysis
of variance. Prerequisite: MATH 4374 or consent of instructor.
MATH
5385 TIME SERIES AND ENGINEERING SYSTEMS
The
contents of this course include the treatment of normal sequences and
white noise, stationary time series, characteristic analysis of time
series, the analysis of stationary time series in the time domain,
linear modeling of dynamic data, linear predictions of time series,
multivariate dynamic data models. Prerequisite: 6 SCH of MATH
4000-courses.
MATH
5391 SPECIAL TOPICS IN MATHEMATICS
The
topic of this course may come from different areas of Pure and
Industrial Mathematics not available in other courses. For instance, the
course could be an introduction to the foundations of system
engineering. This would enable the student to treat complex systems from
the point of view of entire, multiple aspects, and evolution. Topics
would include open and closed systems (ordered and unordered),
bifurcation and catastrophe, attractors and chaos, self-organization of
systems, stochastic systems. Other topics of this course could be linear
optimization or non-linear optimization. The course may be repeated for
credit. Prerequisite: 6 SCH of MATH 4000-courses.
MATH
5395 RESEARCH SEMINAR
This
course is an introduction to the methods and tools of mathematical
research. The participants will study (under the guidance of an
instructor) a chapter of a textbook or an original research paper, and
they will have to present the contents to their classmates and to
faculty.
MATH
5397 THESIS
Supervised research. This will include the treatment of an original
research problem with a written thesis, if needed with a collection and
the analysis of original data, and written in a scientific style in an
acceptable publication format. Prerequisite: Consent of the advisor.
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