A Littlewood-Richardson rule for theK-theory of Grassmannians
By Anders Skovsted Buch. 2000
307 citations recorded by the source corpus.
We prove an explicit combinatorial formula for the structure constants of the Grothendieck ring of a Grassmann variety with respect to its basis of Schubert structure sheaves. We furthermore relate K-theory of Grassmannians to a bialgebra of stable Grothendieck polynomials, which is a K-theory parallel of the ring of symmetric functions.
Subfields: Discrete Mathematics and Combinatorics, Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/0e2988c812176359f3ecee91c7837a4d10fa2f0b
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Discrete Mathematics and Combinatorics
- Thomas Lam
- Anders Skovsted Buch
- Mark Shimozono
- Alexander Yong
- Jennifer Morse
- Luc Lapointe
- H. Naruse
- Anne Schilling
In Geometry and Topology
- Thomas Lam
- Anders Skovsted Buch
- Mark Shimozono
- Alexander Yong
- Jennifer Morse
- Hugh Thomas
- Luc Lapointe
- H. Naruse
In Mathematical Physics
- Anders Skovsted Buch
- Thomas Lam
- Alexander Yong
- David E. Speyer
- Hugh Thomas
- Damir Yeliussizov
- Allen Knutson
- Matthew J. Samuel
Citations in the corpus
- A jeu de taquin theory for increasing tableaux, with applications to K-theoretic Schubert calculus (2007, methodology): “ λ its structure sheaf. The classes {[OX λ ]}⊆ K(X) form an additive Z-basis of K(X). The (K-theoretic) Schubert structure constants Cν λ,µ are defined by [OX λ ]·[OXµ]= X ν⊆Λ Cν λ,µ[OXν]. Buch’s rule [Bu02a] established alternation of sign, i.e., (−1)|ν|−|λ|−|µ|Cν λ,µ ∈ N. There has been significant ”
- Combinatorial Hopf algebras and K-homology of Grassmanians (2007, unknown): “In this section we briefly describe the four combinatorial Hopf algebras, MR, QSym, NSym, and Sym which we intend to generalize (see (1.1)).”
- K-classes for matroids and equivariant localization (2010, background): “This should remind the reader of Schubert calculus; we refer the reader to [7] for a guide to K(G(d, n)) which pursues this analogy.”
- Duality and deformations of stable Grothendieck polynomials (2016, methodology): “Both product (1) and coproduct ∆ make Γ a commutative and cocommutative bialgebra [2].”
- Gröbner geometry of vertex decompositions and of flagged tableaux (2005, methodology): “ tableau. 6 This result appears as part of Theorem 5.8. It was already known in the case of single Schubert polynomials [Wac] and in the case of Grothendieck polynomials for Grassmannian permutations [Buc]. Since the paper [KM1] already provided a geometric explanation for a combinatorial formula fo”
- k-Schur Functions and Affine Schubert Calculus (2013, background): “Pieri rules are given in [113] in terms of binomial numbers and a generalization for Yamanouchi tableaux gives [27] a combinatorial rule for the structure constants.”
- Puzzles and (equivariant) cohomology of Grassmannians (2001, background): “− z j, and it is unclear how to extend this to arbitrary root systems. For many of the other extensions, no satisfactory explicit combinatorial formula for the structure constants is known. 24Much as [Bu] did for K-theoretic Schubert calculus on Grassmannians. In both cases, they gave a formula dire”
- K-theory of minuscule varieties (2013, methodology): “We list the sequence of intermediate tableaux obtained when a forward slide is applied to a tableau T of shape (4, 4, 3)/(3, 1), starting from the box [2, 3] in row 2 and column 3.”
- K-theoretic analogues of factorial Schur P- and Q-functions (2011, background): “For type A case, the corresponding statement is true as a consequence of the explicit description of LR-coefficients given there ([2], Cor.”
- Positivity in the Grothendieck group of complex flag varieties (2001, background): “[Xu] ·[Xv] = X w aw u,v [Xw] for nonnegative integers aw u,v . A generalization to the Grothendieck ring K(X) of vector bundles (or of coherent sheaves) on Xwas recently formulated by A. S. Buch, see [2]. The classes [OXw ] of structure sheaves of Schubert subvarieties form an additive basis of K(X)”
- Excited Young diagrams, equivariant K -theory, and Schubert varieties (2013, unknown): “y also appeared in [WY12], where they were identified as special types of flagged set-valued tableaux. Flagged set-valued tableaux, which were introduced in [KMY09], generalize both set-valued tableaux [Buc02] and flagged tableaux [Wac85]. 4 WILLIAM GRAHAM AND VICTOR KREIMAN Ikeda and Naruse [IN11] use”
- K-theory Schubert calculus of the affine Grassmannian (2009, background): “1. Remark 7.1 implies that G(k) λ (x) = Gλ(x) whenever the largest hook length of λis less than or equal to k, where Gλ(x) is the stable Grothendieck polynomial labeled by partitions, studied by Buch [Buc]. 7.5. K-theoretic k-Schur functions. Since {Gv(x) |v∈WI af}is a “basis” of ˆΛ(n), there is a d”
- Stable Grothendieck polynomials and K-theoretic factor sequences (2005, methodology): “This formula was used in [ 3 ] to express the monomial coefficients of stable Grothendieck polynomials for partitions in terms of set-valued tableaux [see Eq. (8)].”