The Mathematics Colloquium in the department of Mathematics and Computer Science at Rutgers-Newark takes place in 204 Smith Hall, 101 Warren St on Wednesdays from 4-5pm.
For more information, or to be added to our mailing list, please email Robbie Lyman.
For speakers, we recommend this short collection of guidelines on giving a great colloquium talk.
| Date | Speaker |
|---|---|
| September 2 | No Colloquium |
| September 9 | No Colloquium |
| September 16 | No Colloquium |
| September 23 | Luya Wang (IAS) |
| September 30 | Michael Dougherty (Lafayette) |
| October 7 | No Colloquium |
| October 14 | Spencer Leslie (Boston College, IAS) |
| October 21 | TBD |
| October 28 | Jeremy Brazas (West Chester) |
| November 4 | Timothy Bates (Rutgers New Brunswick) |
| November 11 | Gabriel Corrigan (Glasgow) |
| November 18 | Kristen Hendricks (Rutgers New Brunswick) |
| November 25 | No Colloquium |
| December 2 | Nate Fisher (Swarthmore) |
| December 9 | Hannah Hoganson (UMD) |
Symplectic structures roughly lie between smooth topology and complex geometry and exhibit both flexible and rigid phenomena. However, we still do not have a good understanding of what a general symplectic manifold should look like.
In this talk, I will begin by surveying some classical results of Gromov and McDuff from the 1980s, which use pseudoholomorphic curves to classify symplectic manifolds containing certain distinguished submanifolds.
I will then discuss a question of Donaldson in the 1990s, which relates smooth structures in dimension four to symplectic structures in dimension six.
Finally, I will describe some recent refinements of the Gromov-McDuff techniques and their applications to classification problems in the compact setting, which has many interactions with low-dimensional topology.
Spaces of complex polynomials contain a surprising amount of combinatorial structure, particularly in connections to noncrossing partitions. In this talk we will discuss how to extract this noncrossing data from a polynomial and how it determines a compactification and cell structure for a space of polynomials. This is joint work with Jon McCammond.