Estimating scene flow using an interconnected patch surface model with belief-propagation inference super()
This article presents a novel method for estimating the dense three-dimensional motion of a scene from multiple cameras. Our method employs an interconnected patch model of the scene surfaces. The interconnected nature of the model means that we can incorporate prior knowledge about neighbouring sce...
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Veröffentlicht in: | Computer vision and image understanding 2014-04, Vol.121, p.74-85 |
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creator | Popham, Thomas Bhalerao, Abhir Wilson, Roland |
description | This article presents a novel method for estimating the dense three-dimensional motion of a scene from multiple cameras. Our method employs an interconnected patch model of the scene surfaces. The interconnected nature of the model means that we can incorporate prior knowledge about neighbouring scene motions through the use of a Markov Random Field, whilst the patch-based nature of the model allows the use of efficient techniques for estimating the local motion at each patch. An important aspect of our work is that the method takes account of the fact that local surface texture strongly dictates the accuracy of the motion that can be estimated at each patch. Even with simple squared-error cost functions, it produces results that are either equivalent to or better than results from a method based upon a state-of-the-art optical flow technique, which uses well-developed robust cost functions and energy minimisation techniques. |
doi_str_mv | 10.1016/j.cviu.2014.01.001 |
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source | Elsevier ScienceDirect Journals |
subjects | Cameras Cost function Energy use Equivalence Estimating Neighbouring Surface layer Texture |
title | Estimating scene flow using an interconnected patch surface model with belief-propagation inference super() |
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