On the Canonical Decomposition of Quiver Representations
By Harm Derksen, Jerzy Weyman. Compositio Mathematica, 2002
76 citations recorded by the source corpus.
Subfields: Algebra and Number Theory, Geometry and Topology, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/616fad486d42cc701ca852b1400729812122bdd8
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In Algebra and Number Theory
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Citations in the corpus
- Cluster complexes via semi-invariants (2007, methodology): “For the vectors with nonnegative coordinates we recover the simplicial complex corresponding to generic decompositions of dimension vectors obtained in [ 5 ].”
- A categorification of non-crossing partitions (2013, background): “It therefore follows as in [30, Theorem 16] that, in both cases, the Derksen–Weyman algorithm applied to the lar (pi) produces n − 1 real Schur roots, say p̄1, . . . , p̄n−1, other than ar , and that these are the projective roots for a⊥r .”
- Mutation in triangulated categories and rigid Cohen–Macaulay modules (2006, background): “(X,X) = dimk EndH(X) > 0. We call d ∈ ∆re + a real Schur root if the corresponding X ∈ ind(modH) satisfies EndH(X) = k. We denote by ∆reS + the set of real Schur roots. For Schur roots, we refer to [60, 28] for example. Immediately, dim gives a bijection from the set of indecomposable rigid H-modu”
- The combinatorics of quiver representations (2006, methodology): “Lemma 2.15 follows immediately from the correctness of the algorithm in [ 14 ], because the output of the algorithm has the desired property.”
- General Presentations of Algebras (2009, methodology): “An efficient algorithm for finding the canonical decomposition of a dimension vector was given in [6].”