Convergence of two-dimensional lattice-model interfaces to Schramm–Loewner evolution
Establish convergence of the relevant interfaces in two-dimensional lattice models to Schramm–Loewner Evolution (SLE), beyond the limited collection of models for which such convergence is currently known.
References
These emergent symmetries have lead to the wide-open conjecture that certain interfaces converge to the Schramm--Loenwer Evolution (SLE). This has been proved in only a handful of models, including critical Ising model on isoradial graphs and critical site percolation on the triangular lattice.
Although such a discrete realization remains open, Proposition~\ref{prop::GFF_rad} provides a continuum counterpart at $\kappa=4$: when $\sigma_1=\cdots=\sigma_n=1$, the function $F{n}{(\sigma; \mu)}$ in~eqn::LFrad_sigma_def coincides with the partition function of multi-radial $\mathrm{SLE}_4$ with spiral i.e. the partition function $Z{n}{(\mu)}$ in~eqn::LZrad_mu_U with $\kappa=4$, and the corresponding SLE dynamics arise naturally as level lines of the Gaussian free field.
eqn::LZrad_mu_U:
SLEs and CLEs are conjectured (and in several cases rigorously shown) to describe the scaling limits of interfaces in critical statistical mechanics models on planar lattices as well as on random planar maps.
SLEs and CLEs are conjectured (and in several cases rigorously shown) to describe the scaling limits of interfaces in critical statistical mechanics models on planar lattices as well as on random planar maps.