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Notes on Certain (0,2) Correlation Functions

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arxiv hep-th/0406226 v3 pith:TF2GCY3J submitted 2004-06-24 hep-th

Notes on Certain (0,2) Correlation Functions

classification hep-th
keywords correlationcohomologyfunctionsheteroticcertaincorrectionsgeneralizationgroups
verification ladder T0 review T1 audit T2 compute T3 formal T4 reserved
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In this paper we shall describe some correlation function computations in perturbative heterotic strings that, for example, in certain circumstances can lend themselves to a heterotic generalization of quantum cohomology calculations. Ordinary quantum chiral rings reflect worldsheet instanton corrections to correlation functions involving products of Dolbeault cohomology groups on the target space. The heterotic generalization described here involves computing worldsheet instanton corrections to correlation functions defined by products of elements of sheaf cohomology groups. One must not only compactify moduli spaces of rational curves, but also extend a sheaf (determined by the gauge bundle) over the compactification, and linear sigma models provide natural mechanisms for doing both. Euler classes of obstruction bundles generalize to this language in an interesting way.

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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.