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Pole dynamics and an integral of motion for multiple SLE(0)
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We describe the Loewner chains of the real locus of a class of real rational functions whose critical points are on the real line. Our main result is that the poles of the rational function lead to explicit formulas for the dynamical system that governs the driving functions. Our formulas give a simple method for mapping the class of rational functions into solutions to a non-trivial system of quadratic equations, and for directly showing that the curves in the real locus satisfy geometric commutation and have the geodesic multichord property. These results are entirely self-contained and have no reliance on probabilistic objects, but make use of an integral of motion for the Loewner chain that is motivated by ideas from conformal field theory. We also show that the dynamics of the driving functions are a special case of the Calogero-Moser integrable system, restricted to a particular submanifold of phase space carved out by the Lax matrix. Our approach complements a recent result of Peltola and Wang, who showed that the real locus is the deterministic kappa to 0 limit of the multiple SLE(kappa) curves.
Forward citations
Cited by 2 Pith papers
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Multiple chordal SLE($\kappa$) and quantum Calogero-Moser system
Multiple chordal SLE(kappa) partition functions with a marked boundary point are claimed to solve null vector equations and, after a gauge transform, to become quantum Calogero-Moser eigenstates.
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Multiple chordal SLE(0) and classical Calogero-Moser system
Multiple chordal SLE(0) systems of type (n,m) have traces given by the real locus of rational functions with n prescribed critical points and m poles, and their growth-point dynamics is the classical Calogero-Moser system.
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