3D object recognition with a linear time‐varying system of overlay layers

Abstract Object recognition is a challenging task in computer vision with numerous applications. The challenge is in selecting appropriate robust features with tolerable computing costs. Feature learning attempts to solve the feature extraction problem through a learning process using various sample...

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Main Authors: Mohammad Sohrabi Nasrabadi, Reza Safabakhsh
Format: Article
Language:English
Published: Wiley 2021-08-01
Series:IET Computer Vision
Online Access:https://doi.org/10.1049/cvi2.12029
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spelling doaj-c0e031af2177440a92d90e062fa14ba42021-07-09T15:26:15ZengWileyIET Computer Vision1751-96321751-96402021-08-0115538039110.1049/cvi2.120293D object recognition with a linear time‐varying system of overlay layersMohammad Sohrabi Nasrabadi0Reza Safabakhsh1Department of Computer Engineering Amirkabir University of Technology Tehran IranDepartment of Computer Engineering Amirkabir University of Technology Tehran IranAbstract Object recognition is a challenging task in computer vision with numerous applications. The challenge is in selecting appropriate robust features with tolerable computing costs. Feature learning attempts to solve the feature extraction problem through a learning process using various samples of the objects. This research proposes a two‐stage optimization framework to identify the structure of a first‐order linear non‐homogeneous difference equation which is a linear time‐varying system of overlay layers (LtvoL) that construct an image. The first stage consists of the determination of a finite set of impulses, called overlay layers, by the application of a genetic algorithm. The second stage defines the coefficients of the corresponding difference equation derived from L2 regularization. Classification of the test images is possible by a novel process exclusively designed for this model. Experiments on the Washington RGB‐D dataset and ETH‐80 show promising results which are comparable to those of state‐of‐the‐art methods for RGB‐D‐based object recognition.https://doi.org/10.1049/cvi2.12029
collection DOAJ
language English
format Article
sources DOAJ
author Mohammad Sohrabi Nasrabadi
Reza Safabakhsh
spellingShingle Mohammad Sohrabi Nasrabadi
Reza Safabakhsh
3D object recognition with a linear time‐varying system of overlay layers
IET Computer Vision
author_facet Mohammad Sohrabi Nasrabadi
Reza Safabakhsh
author_sort Mohammad Sohrabi Nasrabadi
title 3D object recognition with a linear time‐varying system of overlay layers
title_short 3D object recognition with a linear time‐varying system of overlay layers
title_full 3D object recognition with a linear time‐varying system of overlay layers
title_fullStr 3D object recognition with a linear time‐varying system of overlay layers
title_full_unstemmed 3D object recognition with a linear time‐varying system of overlay layers
title_sort 3d object recognition with a linear time‐varying system of overlay layers
publisher Wiley
series IET Computer Vision
issn 1751-9632
1751-9640
publishDate 2021-08-01
description Abstract Object recognition is a challenging task in computer vision with numerous applications. The challenge is in selecting appropriate robust features with tolerable computing costs. Feature learning attempts to solve the feature extraction problem through a learning process using various samples of the objects. This research proposes a two‐stage optimization framework to identify the structure of a first‐order linear non‐homogeneous difference equation which is a linear time‐varying system of overlay layers (LtvoL) that construct an image. The first stage consists of the determination of a finite set of impulses, called overlay layers, by the application of a genetic algorithm. The second stage defines the coefficients of the corresponding difference equation derived from L2 regularization. Classification of the test images is possible by a novel process exclusively designed for this model. Experiments on the Washington RGB‐D dataset and ETH‐80 show promising results which are comparable to those of state‐of‐the‐art methods for RGB‐D‐based object recognition.
url https://doi.org/10.1049/cvi2.12029
work_keys_str_mv AT mohammadsohrabinasrabadi 3dobjectrecognitionwithalineartimevaryingsystemofoverlaylayers
AT rezasafabakhsh 3dobjectrecognitionwithalineartimevaryingsystemofoverlaylayers
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