Abstract

Recently in the Computer Vision field, a subject of interest, at least in almost every video application based on scene content, is video segmentation. Some of these applications are indexing, surveillance, medical imaging, event analysis, and computer-guided surgery, for naming some of them. To achieve their goals, these applications need meaningful information about a video sequence, in order to understand the events in its corresponding scene. Therefore, we need semantic information which can be obtained from objects of interest that are present in the scene. In order to recognize objects we need to compute features which aid the finding of similarities and dissimilarities, among other characteristics. For this reason, one of the most important tasks for video and image processing is segmentation. The segmentation process consists in separating data into groups that share similar features. Based on this, in this work we propose a novel framework for video representation and segmentation. The main workflow of this framework is given by the processing of an input frame sequence in order to obtain, as output, a segmented version. For video representation we use the Extreme Vertices Model in the n-Dimensional Space while we use the Discrete Compactness descriptor as feature and Kohonen Self-Organizing Maps for segmentation purposes.

Highlights

  • IntroductionVideo segmentation is an open problem in the Computer Vision and Pattern Recognition fields

  • We need semantic information which can be obtained from objects of interest that are present in the scene

  • Video segmentation is an open problem in the Computer Vision and Pattern Recognition fields

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Summary

Introduction

Video segmentation is an open problem in the Computer Vision and Pattern Recognition fields In recent years, this problem is of high interest because of the applications that can be derived from it [1, 2], for example, video indexing in databases, video summary, surveillance, medical imaging, event analysis, and computer surgery. A very common approach is to compute features for describing objects, such that it is possible to distinguish them among others. For this reason, one of the most important tasks involved in object extraction is the process of segmentation, because the information that will be computed from the objects depends largely on the quality of this task

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