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Modulated logarithmic Sobolev inequalities and generation of chaos

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arxiv 2307.07587 v1 pith:LOVRI2V2 submitted 2023-07-14 math.PR math-phmath.APmath.FAmath.MP

classification math.PRmath-phmath.APmath.FAmath.MP
keywords modulatedchaoslogarithmicsobolevclassconvergenceenergyfree
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abstract

We consider mean-field limits for overdamped Langevin dynamics of $N$ particles with possibly singular interactions. It has been shown that a modulated free energy method can be used to prove the mean-field convergence or propagation of chaos for a certain class of interactions, including Riesz kernels. We show here that generation of chaos, i.e. exponential-in-time convergence to a tensorized (or iid) state starting from a nontensorized one, can be deduced from the modulated free energy method provided a uniform-in-$N$ "modulated logarithmic Sobolev inequality" holds. Proving such an inequality is a question of independent interest, which is generally difficult. As an illustration, we show that uniform modulated logarithmic Sobolev inequalities can be proven for a class of situations in one dimension.

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  1. Sharp mean-field estimates for the repulsive log gas in any dimension

    math.PR 2025-06 conditional novelty 8.0 of 10

    The log-gas partition function is uniformly bounded in N for arbitrary bounded base measures, giving a mean-field convergence rate of order 1/N instead of (log N)/N for repulsive logarithmic interactions.

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