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Towards Feynman rules for conformal blocks

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arxiv 2006.14736 v1 pith:KNURDIIK submitted 2020-06-26 hep-th

classification hep-th
keywords rulesblocksfeynmanchannelconformalblockknownpoint
verification ladder T0 review T1 audit T2 compute T3 formal
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abstract

We conjecture a simple set of "Feynman rules" for constructing $n$-point global conformal blocks in any channel in $d$ spacetime dimensions, for external and exchanged scalar operators for arbitrary $n$ and $d$. The vertex factors are given in terms of Lauricella hypergeometric functions of one, two or three variables, and the Feynman rules furnish an explicit power-series expansion in powers of cross-ratios. These rules are conjectured based on previously known results in the literature, which include four-, five- and six-point examples as well as the $n$-point comb channel blocks. We prove these rules for all previously known cases, as well as for a seven-point block in a new topology and the even-point blocks in the "OPE channel." The proof relies on holographic methods, notably the Feynman rules for Mellin amplitudes of tree-level AdS diagrams in a scalar effective field theory, and is easily applicable to any particular choice of a conformal block.

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  1. Feynman Diagrams from Conformal Integrals

    hep-th 2024-12 conditional novelty 6.0 of 10

    Any massless-internal Feynman integral is a limit of a conformal integral, letting conformal-family computations supply exact answers for many Feynman diagrams.

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