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Central limit theorem over non-linear functionals of empirical measures: beyond the iid setting

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arxiv 2204.06482 v1 pith:VTDRE73G submitted 2022-04-13 math.PR

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keywords limitcentralfunctionalstheoremnon-linearbeenempiricalindependent
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The central limit theorem is, with the strong law of large numbers, one of the two fundamental limit theorems in probability theory. Benjamin Jourdain and Alvin Tse have extended to non-linear functionals of the empirical measure of independent and identically distributed random vectors the central limit theorem which is well known for linear functionals. The main tool permitting this extension is the linear functional derivative, one of the notions of derivation on the Wasserstein space of probability measures that have recently been developed. The purpose of this work is to generalize what has been done by Jourdain and Tse: provide a Central Limit Theorem for non-linear functionals of independent and non equidistributed random vectors such as the successive values of an ergodic Markov chain.

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  1. Convergence rate for Fluctuations of mean field interacting diffusion and application to 2D viscous Vortex model and Coulomb potential

    math.PR 2025-09 conditional novelty 8.0 of 10

    First quantitative convergence rate for mean-field fluctuation processes: 1/√N for regular drifts, with weaker rates for singular vortex and Coulomb kernels.

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