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Thresholds of Large N Factorization in CFT4 : Exploring bulk spacetime in AdS5

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arxiv 1403.5281 v2 pith:DRKERUFD submitted 2014-03-20 hep-th

classification hep-th
keywords correlatorsthresholdfactorizationlargebulkdualholomorphicoperators
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abstract

Large $N$ factorization ensures that, for low-dimension gauge-invariant operators in the half-BPS sector of ${\cal N}=4$ SYM, products of holomorphic traces have vanishing correlators with single anti-holomorphic traces. This vanishing is necessary to consistently map trace operators in the CFT$_4$ to a Fock space of graviton oscillations in the dual AdS$_5$. We investigate the regimes at which the CFT correlators do not vanish but become of order one in the large $N$ limit, which we call a factorization threshold. Quite generally, we find the threshold to be when the product of the two holomorphic operator dimensions is of order $N\log N$. Our analysis considers extremal and non-extremal correlators and correlators in states dual to LLM backgrounds, and we observe intriguing similarities between the the energy-dependent running coupling of non-abelian gauge theories and our threshold equations. Finally, we discuss some interpretations of the threshold within the bulk AdS spacetime.

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  1. Overcrowding and the Finite-$N$ Hilbert Space

    hep-th 2026-07 accept novelty 7.0 of 10

    For d Hermitian N x N matrices, any all-single-trace choice of primary coordinates must miss a trace direction by degree 2 log_d N + log_d log_d N + O(1), parametrically below the first trace identity.

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