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Chiral Algebras of Two-Dimensional SYK Models

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arxiv 1812.05106 v1 pith:WKDBMZ2Y submitted 2018-12-12 hep-th

Chiral Algebras of Two-Dimensional SYK Models

classification hep-th
keywords algebrahigher-spinlimitarxivsingle-particlealgebrasawaychiral
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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We study chiral algebras in the $\bar{Q}$-cohomology of two dimensional SYK models with extended supersymmetry. In a special limit discovered in arXiv:1805.09325, we are able to construct explicitly a "vertical" single-particle higher-spin algebra that is bilinear in the fundamental fields. This algebra can be regarded as the counterpart, when going away from criticality, of the infrared emergent higher-spin symmetry of the $\mathcal{N}=(0,2)$ SYK model. Moreover, a second "horizontal" single-particle higher-spin algebra appears in this limit. Together with the vertical algebra they generate a stringy algebra with a "higher spin square" structure that is believed to appear in the tensionless limit of string theory. On the other hand, we do not find single-particle higher-spin algebra away from the special limit, which is consistent with the result in arXiv:1805.09325. Our analysis is carried out for each individual realization of the random couplings and for finite $N$ (and $M$), which in particular indicates that the conclusion in arXiv:1805.09325 is robust to $1/N$ corrections.

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  1. $E$ and $J$ type $\mathcal{N}=(0,2)$ disordered models and higher-spin symmetry

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    The E-type N=(0,2) disordered model is dynamically equivalent to the J-type model in the IR, inheriting its emergent higher-spin symmetry.