New Integrable RG flows with Parafermions
Changrim Ahn, Zoltan Bajnok

TL;DR
This paper introduces new UV complete quantum field theories derived from RSOS scattering theories through specific irrelevant deformations, revealing a connection with parafermionic sinh-Gordon models and minimal CFTs.
Contribution
It identifies two novel UV complete QFTs linked to minimal CFTs, constructed via fine-tuned irrelevant deformations of RSOS theories, and confirms their properties through thermodynamic Bethe ansatz calculations.
Findings
Discovery of massless Z_{p-1} parafermionic sinh-Gordon models as UV completions.
Confirmation of the models via matching vacuum energies from TBA and quantization conditions.
Identification of a roaming trajectory connecting these theories to parafermionic minimal series.
Abstract
We consider irrelevant deformations of massless RSOS scattering theories by an infinite number of higher TTbar_{s+1} operators which introduce extra non-trivial CDD factors between left-movers and right-movers. It is shown that the resulting theories can be UV complete after bypassing typical Hagedorn-like singularities if the coefficients of the deformations are fine-tuned. In this way, we have discovered that only two new UV complete QFTs are associated with a M_p (p=3,4,...) minimal CFT based on the integrable structure of the RSOS scattering theory. One is the massless Z_{p-1} parafermionic sinh-Gordon models (PShG) with a self-dual coupling constant. This correspondence is confirmed by showing that the scale-dependent vacuum energies computed by the thermodynamic Bethe ansatz based on the S-matrices match those from the quantization conditions for the PShG models using the…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsFluid Dynamics and Turbulent Flows
