Quantum cohomology of orthogonal Grassmannians
By Andrew Kresch, Harry Tamvakis. Compositio Mathematica, 2003
60 citations recorded by the source corpus.
Let V be a vector space with a non-degenerate symmetric form and OG be the orthogonal Grassmannian which parametrizes maximal isotropic subspaces in V. We give a presentation for the (small) quantum cohomology ring QH*(OG) and show that its product structure is determined by the ring of $\widetilde{P}$-polynomials. A ‘quantum Schubert calculus’ is formulated, which includes quantum Pieri and Giambelli formulas, as well as algorithms for computing Gromov--Witten invariants. As an application, we show that the table of three-point, genus zero Gromov–Witten invariants for OG coincides with that for a corresponding Lagrangian Grassmannian LG, up to an involution.
Subfields: Discrete Mathematics and Combinatorics, Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/cdb4244cdb7573b06570313fede4b5c41ebe14b4
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In Discrete Mathematics and Combinatorics
- Anders Skovsted Buch
- P. Chaput
- N. Perrin
- Harry Tamvakis
- Andrew Kresch
- Laurent Manivel
- Leonardo Constantin Mihalcea
- Alexander Yong
In Geometry and Topology
- Anders Skovsted Buch
- P. Chaput
- N. Perrin
- Harry Tamvakis
- Andrew Kresch
- Laurent Manivel
- Leonardo Constantin Mihalcea
- Alexander Yong
In Mathematical Physics
- Anders Skovsted Buch
- Harry Tamvakis
- Andrew Kresch
- P. Chaput
- N. Perrin
- Laurent Manivel
- Alexander Yong
- Damir Yeliussizov
Citations in the corpus
- Gromov-Witten invariants on Grassmannians (2003, methodology): “In the following sections we will mostly adopt the notational conventions of [KT1] and [KT2].”
- Quantum Cohomology of Minuscule Homogeneous Spaces (2006, background): “Of course, in degree smaller than 12, this is also the case of the Giambelli type formulas given in the proof of Proposition 3. The coincidence of classical and quantum Giambelli formulas already appeared for minuscule homogeneous varieties of classical type (see [Be], [ KT2 ]).”
- Quantum Pieri rules for isotropic Grassmannians (2008, methodology): “The proofs of the quantum Pieri rules in this article use the kernel–span and dimension counting ideas of the first author [Bu] in an essential way; the earlier papers [Be, KT1, KT2 ] used intersection theory on certain Quot scheme compactifications of the moduli space of maps from the projective l”