Differential Geometry
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More about differential geometry
Differential geometry is one of the classical, core disciplines of mathematics. Its primary objects of study are smooth manifolds, which are simply the subsets in the Euclidean spaces to which calculus applies.
Examples include smooth surfaces and their higher dimensional analogues. One main objective is to understand and classify their topological, geometric and analytical structures. The recent classification of three dimensional manifolds is considered as one of the most significant achievements in mathematics.
Differential geometry is deeply connected to many other mathematical areas such as topology, analysis, algebraic geometry and number theory. It also interacts closely with theoretical physics, from general relativity to string theory. It has wide-ranging applications throughout mathematics, science, and engineering as well.
Research topics include
- Low dimensional topology
- Symplectic topology
- Contact topology
- Poisson geometry
- Riemannian geometry
- Geometric analysis
- General relativity
- Geometric dynamical systems
- Foliations
- Ergodic theory
- Hyperbolic groups
- Trees
- Teichmuller spaces
- Hyperbolic geometry
- Fuchsian and Kleinian groups
- Complex dynamics
- Lie groups and pseudo-groups
- Moving frames
- Cartan connections
- Equivalence and symmetry
- The variational bicomplex
- Exterior differential systems
- Applications to image processing, materials science, and anthropology
Seminars
- Weekly Differential Geometry and Symplectic Topology seminar: Thursdays from 1:30–2:30pm
- Student symplectic geometry seminar
- Yamabe Memorial Symposiums — Named in honor of our former colleague Hidehiko Yamabe, this biennial event brings leading researchers in the field from around the world to the University of Minnesota.
Faculty

Scot Adams
Professor
adams005@umn.edu
dynamical systems, foliations, ergodic theory, hyperbolic groups, trees, Riemannian geometry



Michelle Chu
Assistant Professor
mchu@umn.edu
hyperbolic geometry, low-dimensional topology, geometric group theory, and arithmetic groups


Pei-Ken Hung
Assistant Professor
pkhung@umn.edu
geometric analysis, general relativity, integrable probability


Albert Marden
Professor Emeritus
am@math.umn.edu
Riemann surfaces and Teichmuller spaces of Riemann surfaces, hyperbolic geometry of surfaces and 3-manifolds, Fuchsian and Kleinian groups, complex dynamics, geometric analysis in low dimensions

Peter Olver
Professor
olver@umn.edu
Lie groups, differential equations, computer vision, applied mathematics, differential geometry, mathematical physics
