The Construction of Correlators in Finite Rigid Logarithmic Conformal Field Theory
Lukas Woike

TL;DR
This paper develops a new method for constructing and classifying correlators in finite logarithmic conformal field theories with non-semisimple monodromy data, extending previous rational CFT results and confirming several theoretical conjectures.
Contribution
It introduces a novel correlator construction applicable to open-closed sectors in logarithmic CFTs, generalizing past rational theories and employing the modular microcosm principle.
Findings
Correlators admit a holographic description via factorization homology.
Evaluation of the torus partition function at projective objects yields non-negative integers.
The algebra of local operators has a Batalin-Vilkovisky structure matching Hochschild cohomology.
Abstract
For logarithmic conformal field theories whose monodromy data is given by a not necessarily semisimple modular category, we solve the problem of constructing and classifying the consistent systems of correlators. The correlator construction given in this article applies to the open-closed sector and generalizes the well-known one for rational conformal field theories given by Fuchs-Runkel-Schweigert roughly twenty years ago and solves conjectures of Fuchs, Gannon, Schaumann and Schweigert. The strategy is, even in the rational special case, entirely different. The correlators are constructed using the extension procedures that can be devised by means of the modular microcosm principle. It is shown that, as in the rational case, the correlators admit a holographic description, with the main difference that the holographic principle is phrased in terms of factorization homology. The…
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Taxonomy
TopicsElectromagnetic Scattering and Analysis · Advanced Mathematical Modeling in Engineering · Numerical methods for differential equations
