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This research introduces a neural framework for simultaneous optimal transport, enabling a single model to align multiple source distributions with a common target despite varying degradation types. By formulating the problem as a max-min optimization task, the method addresses limitations in standard pooling approaches that fail to preserve individual source alignment. The work advances generative modeling and image restoration by providing a principled way to handle unpaired samples without requiring specific knowledge of input conditions at inference time.
Simultaneous Neural Optimal Transport
arXiv:2609.37424v1 Announce Type: new Abstract: Optimal Transport (OT) provides a principled framework for learning transformations between probability distributions from unpaired samples. In many applications, however, a single transformation must map several source distributions to a common target distribution. For example, image restoration might require handling different types of degradation without knowing the degradation of each input at inference time. Simple approaches of pooling the source distributions only encourage alignment with the target at the aggregate level and may leave individual sources misaligned. In our paper, we consider the simultaneous OT problem which formalizes the task of learning a shared transport map that minimizes the average transport cost while aligning each source distribution with a prescribed target. We propose a neural method for solving the simultaneous OT problem by learning a shared transport map that minimizes the average transport cost while aligning each source distribution with a prescribed target. We derive a max-min formulation for learning this map. We illustrate its application to image restoration, where a single model handles multiple degradation types using a common collection of clean target images.
Abstract:Optimal Transport (OT) provides a principled framework for learning transformations between probability distributions from unpaired samples. In many applications, however, a single transformation must map several source distributions to a common target distribution. For example, image restoration might require handling different types of degradation without knowing the degradation of each input at inference time. Simple approaches of pooling the source distributions only encourage alignment with the target at the aggregate level and may leave individual sources misaligned. In our paper, we consider the simultaneous OT problem which formalizes the task of learning a shared transport map that minimizes the average transport cost while aligning each source distribution with a prescribed target. We propose a neural method for solving the simultaneous OT problem by learning a shared transport map that minimizes the average transport cost while aligning each source distribution with a prescribed target. We derive a max-min formulation for learning this map. We illustrate its application to image restoration, where a single model handles multiple degradation types using a common collection of clean target images.
Machine Learning (cs.LG); Artificial Intelligence (cs.AI)
arXiv:2609.37424 [cs.LG]
(or arXiv:2609.37424v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2609.37424 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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