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Inviscid limit and an effective energy-enstrophy diffusion process

Alain-Sol Sznitman, Klaus Widmayer

17/2/26 Published in : arXiv:2602.15805

In this article we consider a stationary N-dimensional Galerkin-Navier-Stokes type evolution with Brownian forcing and random stirring (of arbitrarily small strength). We show that the stationary diffusion in an open two-dimensional cone constructed in a companion article, stands as the inviscid limit of the laws of the "enstrophy-energy" process of the N-dimensional diffusion process considered here, this regardless of the strength of the stirring. With the help of the quantitative condensation bounds of the companion article, we infer quantitative inviscid condensation bounds, which for suitable forcings show an attrition of all but the lowest modes in the inviscid limit.

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Phase I & II research project(s)

  • Statistical Mechanics

Phase III direction(s)

  • Statistical Mechanics and Random Structures

Higher-Point Correlators in N=4 SYM: Generating Functions

Effective energy-enstrophy diffusion process and condensation bound

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The National Centres of Competence in Research (NCCRs) are a funding scheme of the Swiss National Science Foundation

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