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Isomorphisms among quantum Grothendieck rings and cluster algebras
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abstract
We establish a cluster theoretical interpretation of the isomorphisms of [F.-H.-O.-O., J. Reine Angew. Math., 2022] among quantum Grothendieck rings of representations of quantum loop algebras. Consequently, we obtain a quantization of the monoidal categorification theorem of [Kashiwara-Kim-Oh-Park, arXiv:2103.10067]. We establish applications of these new ingredients. First we solve long-standing problems for any non-simply-laced quantum loop algebras: the positivity of $(q,t)$-characters of all simple modules, and the analog of Kazhdan-Lusztig conjecture for all reachable modules (in the cluster monoidal categorification). We also establish the conjectural quantum $T$-systems for the $(q,t)$-characters of Kirillov-Reshetikhin modules. Eventually, we show that our isomorphisms arise from explicit birational transformations of variables, which we call substitution formulas. This reveals new non-trivial relations among $(q, t)$-characters of simple modules.
Forward citations
Cited by 2 Pith papers
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Towards Monoidal Categorifications of Twisted Products of Flag Varieties
The Grothendieck ring of the intersection of two monoidal categories C(β)∩C_v contains the cluster algebra of the twisted product of flag varieties, with cluster monomials given by classes of simple objects.
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Quantum cluster algebras and representations of shifted quantum affine algebras
A quantum cluster algebra construction produces a quantization K_t(O^{sh}_Z) of the Grothendieck ring of shifted quantum affine algebra representations, containing the quantum Borel Grothendieck ring.
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