### MATH 5040: Topics in Applied Analysis I

**Description:** Advanced topics from the theory of ordinary or partial differential equations. Other possible topics: integral equations, optimization theory, the calculus of variations, advanced approximation theory. With a change of content, this course is repeatable to a maximum of twelve credits.

**Credits:** 3

### MATH 5040 - Section 1: Indefinite Inner Product Spaces

**Description:** An indefinite inner product is defined like the usual inner (or scalar) product, but we drop the positivity requirement, so that

Though this theory is a very active area of current research, and there is a vast literature on the subject, until recently it was sort of difficult to present an elegant introductory graduate course. The reason was that such a course would be based on various journal publications that use quite different notations, terminology, and approaches. Fortunately, a recent excellent graduate textbook by Gohberg, Lancaster and Rodman makes such a course feasible and enjoyable. In the first part of this course we will cover various topics, including the geometry of inner product spaces, and the theory of matrices that are self-adjoint, unitary or normal with respect to an indefinite inner product. Several years ago I taught this course here at UConn. Solving one of the homework problem led to further research resulting in a paper published by two students (Tom Bella and Upendra Prasad) and myself in a first-rate scholarly journal. In the second part of this course we will study the results of Bella and Prasad, and maybe at the end we shall address some interesting open questions as well.

**Instructor:** Vadim Olshevsky

**Offered:** Spring

**Credits:** 3

### MATH 5040 - Section 2: Special Topics: Computational Fluid Dynamics (CFD)

**Description:** The effcient, accurate and reliable numerical approximation of fluid flows remains one of the great computational challenges for engineers and scientists. There is a rich mathematical theory for fluid flows, but important open questions remain and computational challenges are exacerbated by an incomplete understanding of fluid behaviors. This course provides an introduction to the mathematical theory for viscous, incompressible fluids and computational techniques, including large eddy simulation (LES) based on the Kolmogorov theory of homogeneous, isotropic turbulence.

**Instructor:** Jeffrey Connors

**Offered:** Spring

**Credits:** 3

**Sections: **Spring 2017 on Storrs Campus

PSCourseID | Course | Sec | Comp | Time | Room | Instructor |
---|---|---|---|---|---|---|

24844 | 5040 | 001 | Lecture | MWF 1:25:00 PM-02:15:00 PM | MONT 245 | Connors, Jeffrey |