Massively Parallel Cellular Matrix Model for Superpixel Adaptive Segmentation Map
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Titre | Massively Parallel Cellular Matrix Model for Superpixel Adaptive Segmentation Map |
Type de publication | Conference Paper |
Year of Publication | 2015 |
Auteurs | Wang H, Mansouri A, Creput J-C, Ruichek Y |
Editor | Lagunas OP, Alcantara OH, Figueroa GA |
Conference Name | ADVANCES IN ARTIFICIAL INTELLIGENCE AND ITS APPLICATIONS, MICAI 2015, PT II |
Publisher | Mexican Soc Artificial Intelligence; Instituto Investigaciones Electricas; Centro Nacl Investigac & Desarrollo Tecnologico; Univ Politecnica Estado Morelos; Tecnologico Monterrey Campus Cuernavaca; Centro Investigac Computac Instituto Politecnico Nacl; Un |
Conference Location | HEIDELBERGER PLATZ 3, D-14197 BERLIN, GERMANY |
ISBN Number | 978-3-319-27101-9; 978-3-319-27100-2 |
Mots-clés | Cellular matrix model, Graphics processing unit, Image Segmentation, self-organizing map, superpixel |
Résumé | We propose the concept of superpixel adaptive segmentation map, to produce a perceptually meaningful representation of rigid pixel image, with higher resolution of more superpixels on interesting regions according to the density distribution of desired attributes. The solution is based on the self-organizing map (SOM) algorithm, for the benefits of SOM's ability to generate a topological map according to a probability distribution and its potential to be a natural massive parallel algorithm. We also propose the concept of parallel cellular matrix which partitions the Euclidean plane defined by input image into an appropriate number of uniform cell units. Each cell is responsible of a certain part of the data and the cluster center network, and carries out massively parallel spiral searches based on the cellular matrix topology. Experimental results from our GPU implementation show that the proposed algorithm can generate adaptive segmentation map where the distribution of superpixels reflects the gradient distribution or the disparity distribution of input image, with respect to scene topology. When the input size augments, the running time increases in a linear way with a very weak increasing coefficient. |
DOI | 10.1007/978-3-319-27101-9_24 |