Gorenstein and palindromic Hilbert-series conjecture for Cherednik quotients

Let Mc(Sn,h,τ)M_c(S_n,\mathfrak{h},\tau) be the polynomial representation and Jc(Sn,h,τ)J_c(S_n,\mathfrak{h},\tau) its singular ideal, and write Lc(Sn,h,τ)=Mc(Sn,h,τ)/Jc(Sn,h,τ)L_c(S_n,\mathfrak{h},\tau)=M_c(S_n,\mathfrak{h},\tau)/J_c(S_n,\mathfrak{h},\tau). Here nn is arbitrary, τ\tau is an SnS_n-representation, and cc may lie in or outside Fp\mathbf{F}_p.

Gorenstein and palindromicity conjecture. If τ\tau is trivial, then Mc(Sn,h,τ)/Jc(Sn,h,τ)M_c(S_n,\mathfrak{h},\tau)/J_c(S_n,\mathfrak{h},\tau) is Gorenstein for all nn, both when cFpc\in\mathbf{F}_p and when cFpc\notin\mathbf{F}_p. More generally, for every τ\tau, the Hilbert series hLc(Sn,h,τ)(t)h_{L_c(S_n,\mathfrak{h},\tau)}(t) is palindromic.

The conjecture predicts a strong duality property for these finite-dimensional Cherednik quotients. The source does not provide a general proof or a resolution status beyond stating the conjecture.

Sources & referencesView supporting material

Primary source

Carl Lian, “Representations of Cherednik Algebras Associated to Symmetric and Dihedral Groups in Positive Characteristic”, arXiv:1207.0182 (2014).

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