3260 papers • 126 benchmarks • 313 datasets
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These leaderboards are used to track progress in dense-pixel-correspondence-estimation-1
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The concept of end-to-end learning of optical flow is advanced and it work really well, and faster variants that allow optical flow computation at up to 140fps with accuracy matching the original FlowNet are presented.
PWC-Net has been designed according to simple and well-established principles: pyramidal processing, warping, and the use of a cost volume, and outperforms all published optical flow methods on the MPI Sintel final pass and KITTI 2015 benchmarks.
This paper proposes a coarse-to-fine CNN-based framework that can leverage the advantages of optical flow approaches and extend them to the case of large transformations providing dense and subpixel accurate estimates and proves that the model outperforms existing dense approaches.
The Spatial Pyramid Network (SPyNet) is much simpler and 96% smaller than FlowNet in terms of model parameters, which makes it more efficient and appropriate for embedded applications.
This work aims to estimate a dense flow field relating two images, coupled with a robust pixel-wise confidence map indicating the reliability and accuracy of the prediction, and develops a flexible probabilistic approach that jointly learns the flow prediction and its uncertainty.
This work proposes a universal network architecture that is directly applicable to all the aforementioned dense correspondence problems, and achieves both high accuracy and robustness to large displacements by investigating the combined use of global and local correlation layers.
A novel matching algorithm, called DeepMatching, to compute dense correspondences between images, which outperforms the state-of-the-art algorithms and shows excellent results in particular for repetitive textures.
The proposed GOCor module is a fully differentiable dense matching module, acting as a direct replacement to the feature correlation layer, capable of effectively learning spatial matching priors to resolve further matching ambiguities.
A novel framework for finding correspondences in images based on a deep neural network that, given two images and a query point in one of them, finds its correspondence in the other, yielding a multiscale pipeline able to provide highly-accurate correspondences.
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