The N-particle 2D log gas on R^2 is shown to be entropically chaotic with rate e^{C t^eps}(E_N(0)+1/N), the first quantitative whole-space estimate.
Quantitative Propagation of Chaos for the Mixed-Sign Viscous Vortex Model on the Torus
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abstract
We derive a quantiative propagation of chaos result for a mixed-sign point vortex system on $\mathbb{T}^2$ with independent Brownian noise, at an optimal rate. We introduce a pairing between vortices of opposite sign, and using the vorticity formulation of 2D Navier-Stokes, we define an associated tensorized vorticity equation on $\mathbb{T}^2\times\mathbb{T}^2$ with the same well-posedness theory as the original equation. Solutions of the new PDE can be projected onto solutions of Navier-Stokes, and the tensorized equation allows us to exploit existing propagation of chaos theory for identical particles.
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Propagation of Chaos for 2D Log Gas on the Whole Space
The N-particle 2D log gas on R^2 is shown to be entropically chaotic with rate e^{C t^eps}(E_N(0)+1/N), the first quantitative whole-space estimate.