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A Consistent Extension of Discrete Optimal Transport Maps for Machine Learning Applications

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arxiv 2102.08644 v1 pith:C2KMJWFC submitted 2021-02-17 math.ST stat.TH

classification math.STstat.TH
keywords transportoptimalapplicationsconsistentlearningmachinemapsdiscrete
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Optimal transport maps define a one-to-one correspondence between probability distributions, and as such have grown popular for machine learning applications. However, these maps are generally defined on empirical observations and cannot be generalized to new samples while preserving asymptotic properties. We extend a novel method to learn a consistent estimator of a continuous optimal transport map from two empirical distributions. The consequences of this work are two-fold: first, it enables to extend the transport plan to new observations without computing again the discrete optimal transport map; second, it provides statistical guarantees to machine learning applications of optimal transport. We illustrate the strength of this approach by deriving a consistent framework for transport-based counterfactual explanations in fairness.

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  1. Statistical Inference for Optimal Transport Maps: Recent Advances and Perspectives

    math.ST 2025-06 conditional

    A survey of minimax rates and limit laws for estimating optimal transport maps from samples, covering smooth, Gaussian, semi-discrete, entropic, and divergence-regularized settings.

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