Conformal Invariance of the FK-Ising Model on Lorentz-Maximal S-Embeddings
S. C. Park

TL;DR
This paper proves that the interface curves of the critical FK-Ising model on non-flat s-embeddings converge to an SLE_{16/3} curve, extending discrete complex analysis techniques to new geometric settings.
Contribution
It demonstrates conformal invariance of the FK-Ising model on non-flat s-embeddings using advanced discrete complex analysis methods.
Findings
Convergence of FK-Ising interfaces to SLE_{16/3} on non-flat s-embeddings.
Extension of discrete complex analysis techniques to Minkowski space embeddings.
Identification of a stronger criticality condition via maximal surfaces in Minkowski space.
Abstract
We show on non-flat but critical s-embeddings the celebrated convergence of the interface curves of the critical FK Ising model to an curve, using discrete complex analytic techniques first used in arXiv:0708.0039, arXiv:1312.0533 and subsequently extended to more lattice settings including isoradial graphs arXiv:0910.2045, circle packings arXiv:1712.08736, and flat s-embeddings arXiv:2006.14559. In our setting, the s-embedding approximates a maximal surface in the Minkowski space , an `exact' criticality condition identified in arXiv:2006.14559, which is stronger than the percolation-theoretic `near-critical' setup studied in, e.g., arXiv:2309.08470. The proof relies on a careful discretisation of the Laplace-Beltrami operator on the s-embedding, which is crucial in identifying the limit of the martingale observable.
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Taxonomy
TopicsStochastic processes and statistical mechanics · Theoretical and Computational Physics · Random Matrices and Applications
