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Efficient Rules for All Conformal Blocks

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arxiv 2002.09007 v1 pith:GMKUNO45 submitted 2020-02-20 hep-th

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

We formulate a set of general rules for computing $d$-dimensional four-point global conformal blocks of operators in arbitrary Lorentz representations in the context of the embedding space operator product expansion formalism arXiv:1905.00434. With these rules, the procedure for determining any conformal block of interest is reduced to (1) identifying the relevant projection operators and tensor structures and (2) applying the conformal rules to obtain the blocks. To facilitate the bookkeeping of contributing terms, we introduce a convenient diagrammatic notation. We present several concrete examples to illustrate the general procedure as well as to demonstrate and test the explicit application of the rules. In particular, we consider four-point functions involving scalars $S$ and some specific irreducible representations $R$, namely $\langle SSSS\rangle$, $\langle SSSR\rangle$, $\langle SRSR\rangle$ and $\langle SSRR\rangle$ (where, when allowed, $R$ is a vector or a fermion), and determine the corresponding blocks for all possible exchanged representations.

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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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