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On Optical Flow Models for Variational Motion Estimation

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arxiv 1512.00298 v1 pith:D63XQV7W submitted 2015-12-01 math.NA cs.CVcs.NAmath.OC

classification math.NAcs.CVcs.NAmath.OC
keywords modelsestimationmotionflowopticalregularizationapproachesdiscuss
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abstract

The aim of this paper is to discuss and evaluate total variation based regularization methods for motion estimation, with particular focus on optical flow models. In addition to standard $L^2$ and $L^1$ data fidelities we give an overview of different variants of total variation regularization obtained from combination with higher order models and a unified computational optimization approach based on primal-dual methods. Moreover, we extend the models by Bregman iterations and provide an inverse problems perspective to the analysis of variational optical flow models. A particular focus of the paper is the quantitative evaluation of motion estimation, which is a difficult and often underestimated task. We discuss several approaches for quality measures of motion estimation and apply them to compare the previously discussed regularization approaches.

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  1. Efficient Dynamic Image Reconstruction with motion estimation

    math.NA 2025-01 conditional novelty 6.0 of 10

    MMGKS-OF jointly estimates motion via optical flow and reconstructs dynamic tomography images using an MMGKS solver with automatic regularization parameter selection, outperforming non-motion baselines.

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