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Continous Spins in 2D Gravity: Chiral Vertex Operators and Local Fields

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arxiv hep-th/9405136 v1 pith:BZTA3EP2 submitted 1994-05-20 hep-th

classification hep-th
keywords fieldliouvillechiralcontinuousspinsconstructexponentialsgeneralized
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abstract

We construct the exponentials of the Liouville field with continuous powers within the operator approach. Their chiral decomposition is realized using the explicit Coulomb-gas operators we introduced earlier. {}From the quantum-group viewpoint, they are related to semi-infinite highest or lowest weight representations with continuous spins. The Liouville field itself is defined, and the canonical commutation relations verified, as well as the validity of the quantum Liouville field equations. In a second part, both screening charges are considered. The braiding of the chiral components is derived and shown to agree with the ansatz of a parallel paper of J.-L. G. and Roussel: for continuous spins the quantum group structure $U_q(sl(2)) \odot U_{\qhat}(sl(2))$ is a non trivial extension of $U_q(sl(2))$ and $U_{\qhat}(sl(2))$. We construct the corresponding generalized exponentials and the generalized Liouville field.

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  1. Recursive relations for the S-matrix of Liouville theory

    hep-th 2025-07 conditional novelty 5.0 of 10

    The Liouville S-matrix normal symbol for discrete momenta p=iℏN is derived from recursive equations and matches the authors' earlier contour-integral representation.

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