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The $O(N)$ model with $\phi^6$ potential in ${\mathbb R}^2 \times {\mathbb R}^+$

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arxiv 2005.07863 v1 pith:5LDHZPEH submitted 2020-05-16 hep-th cond-mat.stat-mech

classification hep-thcond-mat.stat-mech
keywords boundaryanomalydifferentpotentialtheoryallowscoefficientcompute
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abstract

We study the large $N$ limit of $O(N)$ scalar field theory with classically marginal $\phi^6$ interaction in three dimensions in the presence of a planar boundary. This theory has an approximate conformal invariance at large $N$. We find different phases of the theory corresponding to different boundary conditions for the scalar field. Computing a one loop effective potential, we examine the stability of these different phases. The potential also allows us to determine a boundary anomaly coefficient in the trace of the stress tensor. We further compute the current and stress-tensor two point functions for the Dirichlet case and decompose them into boundary and bulk conformal blocks. The boundary limit of the stress tensor two point function allows us to compute the other boundary anomaly coefficient. Both anomaly coefficients depend on the approximately marginal $\phi^6$ coupling.

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  1. Surprises in the Ordinary: $O(N)$ Invariant Surface Defect in the $\epsilon$-expansion

    hep-th 2024-11 conditional novelty 7.0 of 10

    The authors compute defect CFT data to third order in the epsilon expansion and discover approximate 'shadow' relations between surface and bulk scaling dimensions.

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