Grassmann-odd three-point functions of conserved supercurrents in 3D $\mathcal{N}=1$ SCFT
Evgeny I. Buchbinder, Benjamin J. Stone

TL;DR
This paper analytically constructs three-point functions of conserved supercurrents in 3D $ ext{N}=1$ SCFT, proving the absence of parity-violating terms and the uniqueness of parity-even contributions across all superspins.
Contribution
It provides an explicit analytic proof that these correlators lack parity-violating parts and characterizes the parity-even sector for arbitrary superspins in 3D $ ext{N}=1$ superconformal theories.
Findings
No parity-violating contributions in these correlators.
Parity-even contributions are unique and exist for all superspins.
Explicit solutions for the parity-even sector are obtained for arbitrary superspins.
Abstract
We consider the analytic construction of three-point functions of conserved higher-spin supercurrents in three-dimensional superconformal field theory which are Grassmann-odd in superspace. In particular, these include the three-point functions of the supercurrent and flavour currents, which contain the three-point functions of the energy-momentum tensor and conserved vector currents at the component level. We present an analytic proof for arbitrary superspins that these correlators do not possess a parity-violating contribution. We also prove that the parity-even contribution is unique, and exists (under an assumption that is well supported by the computational approach of arXiv:2302.00593) for arbitrary superspins. The construction of the parity-even sector is shown to reduce to solving a system of linear homogeneous equations with a tri-diagonal matrix of co-rank one,…
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Taxonomy
TopicsPhysics of Superconductivity and Magnetism · Black Holes and Theoretical Physics · Superconducting Materials and Applications
