TransSplat uses unbalanced semantic transport to match edited 2D evidence with 3D Gaussians and recover a shared 3D edit field, yielding better local accuracy and structural consistency than prior view-consistency methods.
Scaling algorithms for unbalanced transport problems
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abstract
This article introduces a new class of fast algorithms to approximate variational problems involving unbalanced optimal transport. While classical optimal transport considers only normalized probability distributions, it is important for many applications to be able to compute some sort of relaxed transportation between arbitrary positive measures. A generic class of such "unbalanced" optimal transport problems has been recently proposed by several authors. In this paper, we show how to extend the, now classical, entropic regularization scheme to these unbalanced problems. This gives rise to fast, highly parallelizable algorithms that operate by performing only diagonal scaling (i.e. pointwise multiplications) of the transportation couplings. They are generalizations of the celebrated Sinkhorn algorithm. We show how these methods can be used to solve unbalanced transport, unbalanced gradient flows, and to compute unbalanced barycenters. We showcase applications to 2-D shape modification, color transfer, and growth models.
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cs.CV 2verdicts
UNVERDICTED 2representative citing papers
USIGAN generates pathologically consistent virtual IHC images from weakly paired H&E images by using unbalanced optimal transport to mitigate spatial heterogeneity and adding UOT-CTM and PC-SCM mechanisms for correlation consistency.
citing papers explorer
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TransSplat: Unbalanced Semantic Transport for Language-Driven 3DGS Editing
TransSplat uses unbalanced semantic transport to match edited 2D evidence with 3D Gaussians and recover a shared 3D edit field, yielding better local accuracy and structural consistency than prior view-consistency methods.
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USIGAN: Unbalanced Self-Information Feature Transport for Weakly Paired Image IHC Virtual Staining
USIGAN generates pathologically consistent virtual IHC images from weakly paired H&E images by using unbalanced optimal transport to mitigate spatial heterogeneity and adding UOT-CTM and PC-SCM mechanisms for correlation consistency.