Self-duality conjecture for the Hilbert scheme under 3D-mirror symmetry

Let X=Hilbn(C2)\mathsf{X}=\operatorname{Hilb}^{n}(\mathbb{C}^{2}), and let X!\mathsf{X}^{!} denote its 3D-mirror dual. Let U(a,z)\mathbf{U}(a,z) and L(a,z)\mathbf{L}(a,z) be the matrices of twisted elliptic stable-envelope fixed-point components, let κ\kappa^{*} be the parameter transformation

κ:az,1,za,\kappa^{*}: a\mapsto z\sqrt{\hbar},\qquad \hbar\mapsto \frac{1}{\hbar},\qquad z\mapsto a\sqrt{\hbar},

and let tt denote matrix transposition. Self-duality conjecture. The Hilbert scheme is self-dual under 3D-mirror symmetry, XX!\mathsf{X}\cong\mathsf{X}^{!}, and

U(a,z)=κ ⁣(L(a,z11)t).\mathbf{U}(a,z)=\kappa^{*}\!\left(\mathbf{L}(a,z^{-1}\hbar^{-1})^{t}\right).

This is the fixed-point formulation of the paper’s mirror conjecture for the Hilbert scheme; its resolution is not specified in the supplied text.

Sources & referencesView supporting material

Primary source

Andrey Smirnov, “Quantum differential and difference equations for Hilb^n(C^2)”, arXiv:2102.10726 (2021).

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