Areas of Interest
Global and geometric analysis, Elliptic theory of differential operators on manifolds with singularities, Partial differential equations, General Relativity
Research
The underlying theme of my research is the investigation of topological, geometric, and spectral invariants of (singular) Riemannian manifolds using techniques from partial differential equations. For example, the Euler characteristic of a surface is a topological invariant based its usual definition in terms of a triangulation of the surface. However, it may also be considered geometric in view of the Gauss-Bonnet theorem or spectral in view of the Hodge theorem. I am interested in such relationships on general singular Riemannian manifolds.
Courses
Fall 2026
| Course |
Section |
Title |
Schedule |
Room |
| Math 226 |
06 |
Integration Techniques and Applications |
MWF 9:45–11:15
|
CW-327
|
| Math 227 |
06 |
Infinite Series |
MWF 9:45–11:15
|
CW-327
|
| Math 304 |
01 |
Linear Algebra |
MWF 12:15–1:15
|
FA-209
|
| Math 472 |
01 |
PDE and Mathematical Analysis |
MWF 12:15–1:15
|
FA-209
|
Ph.D. Students
-
Brian Kirby,
Spring, 2026
— On Resolving the Singularities of the Reissner-Nordström Penrose Diagram via Method of Blow-Ups
-
Kunal Sharma,
Spring, 2019
— Adiabatic Limit of Calderon Projector on Manifold with Cylindrical End
-
Binbin Huang,
Spring, 2018
— On a Pseudodifferential Calculus with Modest Boundary Condition
-
Adam Weisblatt,
Spring, 2018
— Geometric techniques for Laplace and Dirac Operators
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