Quantum affine algebras are important examples of Drinfeld-Jimbo quantum groups. They can be defined as quantizations
of affine Kac-Moody algebras or as affinizations of finite type quantum groups (Drinfeld Theorem).
The representation theory of quantum affine algebras is very rich. It has been studied intensively during the past twenty five
years from different point of views, in particular in connections with various fields in mathematics and in physics, such as
geometry (geometric representation theory, geometric Langlands program), topology (invariants in small dimension),
combinatorics (crystals, positivity problems) and theoretical physics (Bethe Ansatz, integrable systems).
In particular, the category C of finite-dimensional representations of a quantum affine algebra is one of the most studied
object in quantum groups theory. However, many important and fundamental questions are still unsolved in this field. The aim of the research project is to make significant advances in the understanding of the category C as well as of its applications in the following five directions. They seem to us to be the most promising directions for this field in the next years :
1. Asymptotical representations and applications to quantum integrable systems,
2. G-bundles on elliptic curves and quantum groups at roots of 1,
3. Categorications (of cluster algebras and of quantum groups),
4. Langlands duality for quantum groups,
5. Proof of (geometric) character formulas and applications.
The resources would be used for the following :
(1) Hiring of 2 PhD students (in 2015 and 2017).
(2) Hiring of 2 Postdocs (in 2015 and 2017).
(3) Invitations and travel for ongoing and future scientific collaborations.
(4) Organization of a summer school in Paris on quantum affine algebras.
Field of science
- /natural sciences/mathematics/pure mathematics/algebra
- /natural sciences/mathematics/pure mathematics/topology
- /natural sciences/physical sciences/theoretical physics
- /natural sciences/mathematics/pure mathematics/geometry
Call for proposal
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