2015
DOI: 10.2140/gt.2015.19.3405
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Dimer models and the special McKay correspondence

Abstract: We study the behavior of a dimer model under the operation of removing a corner from the lattice polygon and taking the convex hull of the rest. This refines an operation of Gulotta, and the special McKay correspondence plays an essential role in this refinement. As a corollary, we show that for any lattice polygon, there is a dimer model such that the derived category of finitely-generated modules over the path algebra of the corresponding quiver with relations is equivalent to the derived category of coheren… Show more

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Cited by 40 publications
(58 citation statements)
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“…Proposition 3.6 (see e.g., [IU2,Section 9], [Boc3,Corollary 2.9]). There exists a one to one correspondence between the set of slopes of zigzag paths on a consistent dimer model and the set of primitive side segments of the perfect matching polygon.…”
Section: Figure 3 Extremal Perfect Matchingsmentioning
confidence: 99%
See 1 more Smart Citation
“…Proposition 3.6 (see e.g., [IU2,Section 9], [Boc3,Corollary 2.9]). There exists a one to one correspondence between the set of slopes of zigzag paths on a consistent dimer model and the set of primitive side segments of the perfect matching polygon.…”
Section: Figure 3 Extremal Perfect Matchingsmentioning
confidence: 99%
“…Theorem 3.9 (see e.g., [Bro,IU2,Boc2]). Suppose that (Q, W Q ) is the QP associated with a consistent dimer model Γ and P(Q, W Q ) is the complete Jacobian algebra.…”
Section: Figure 3 Extremal Perfect Matchingsmentioning
confidence: 99%
“…This is distinct from the construction of Ishii-Ueda [20] for dimer models, which is a process linking the removal of a corner in a lattice polygon to the universal localisation of certain arrows in a quiver in order to determine an open subset in an associated moduli space.…”
Section: The Cornering Category and Recollementmentioning
confidence: 99%
“…Ishii-Ueda [20] and Broomhead [9] show that R admits a noncommutative crepant resolution A = End R ( i∈Q 0 M i ) obtained as the Jacobian algebra kQ/I of a quiver with potential arising from a consistent dimer model on a real two-torus. Toric algebras of this form necessarily satisfy Assumption 5.1; in fact, the conclusions of Lemma A.1 were noted first by Ishii-Ueda [22,Proposition 8.3] and the dual bundle T ∨ ∼ = i∈Q 0 T ∨ i determines a derived equivalence…”
Section: The Toric Case In Dimension Threementioning
confidence: 99%
“…It is proved in [Bro12,Dav11,Boc11] that the Jacobian algebra B = Jac(Q, W ) is a non-commutative crepant resolution of its center C = Z(B) which is the coordinate ring of a Gorenstein affine toric threefold. Moreover the coordinate ring of any Gorenstein affine toric threefold can be obtained from a consistent dimer model [Gul08,IU09].…”
Section: Examplementioning
confidence: 99%