Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability

End users of large volume image datasets are often interested only in certain features that can be identified as quickly as possible. For hyperspectral data, these features could reside only in certain ranges of spectral bands and certain spatial areas of the target. The same holds true for volume m...

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Main Authors: William A. Pearlman, Emmanuel Christophe
Format: Article
Language:English
Published: SpringerOpen 2008-05-01
Series:EURASIP Journal on Image and Video Processing
Online Access:http://dx.doi.org/10.1155/2008/248905
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spelling doaj-adcb6fde514745a0a4895a885eded3cd2020-11-25T00:19:06ZengSpringerOpenEURASIP Journal on Image and Video Processing1687-51761687-52812008-05-01200810.1155/2008/248905Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution ScalabilityWilliam A. PearlmanEmmanuel ChristopheEnd users of large volume image datasets are often interested only in certain features that can be identified as quickly as possible. For hyperspectral data, these features could reside only in certain ranges of spectral bands and certain spatial areas of the target. The same holds true for volume medical images for a certain volume region of the subject's anatomy. High spatial resolution may be the ultimate requirement, but in many cases a lower resolution would suffice, especially when rapid acquisition and browsing are essential. This paper presents a major extension of the 3D-SPIHT (set partitioning in hierarchical trees) image compression algorithm that enables random access decoding of any specified region of the image volume at a given spatial resolution and given bit rate from a single codestream. Final spatial and spectral (or axial) resolutions are chosen independently. Because the image wavelet transform is encoded in tree blocks and the bit rates of these tree blocks are minimized through a rate-distortion optimization procedure, the various resolutions and qualities of the images can be extracted while reading a minimum amount of bits from the coded data. The attributes and efficiency of this 3D-SPIHT extension are demonstrated for several medical and hyperspectral images in comparison to the JPEG2000 Multicomponent algorithm.http://dx.doi.org/10.1155/2008/248905
collection DOAJ
language English
format Article
sources DOAJ
author William A. Pearlman
Emmanuel Christophe
spellingShingle William A. Pearlman
Emmanuel Christophe
Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability
EURASIP Journal on Image and Video Processing
author_facet William A. Pearlman
Emmanuel Christophe
author_sort William A. Pearlman
title Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability
title_short Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability
title_full Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability
title_fullStr Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability
title_full_unstemmed Three-Dimensional SPIHT Coding of Volume Images with Random Access and Resolution Scalability
title_sort three-dimensional spiht coding of volume images with random access and resolution scalability
publisher SpringerOpen
series EURASIP Journal on Image and Video Processing
issn 1687-5176
1687-5281
publishDate 2008-05-01
description End users of large volume image datasets are often interested only in certain features that can be identified as quickly as possible. For hyperspectral data, these features could reside only in certain ranges of spectral bands and certain spatial areas of the target. The same holds true for volume medical images for a certain volume region of the subject's anatomy. High spatial resolution may be the ultimate requirement, but in many cases a lower resolution would suffice, especially when rapid acquisition and browsing are essential. This paper presents a major extension of the 3D-SPIHT (set partitioning in hierarchical trees) image compression algorithm that enables random access decoding of any specified region of the image volume at a given spatial resolution and given bit rate from a single codestream. Final spatial and spectral (or axial) resolutions are chosen independently. Because the image wavelet transform is encoded in tree blocks and the bit rates of these tree blocks are minimized through a rate-distortion optimization procedure, the various resolutions and qualities of the images can be extracted while reading a minimum amount of bits from the coded data. The attributes and efficiency of this 3D-SPIHT extension are demonstrated for several medical and hyperspectral images in comparison to the JPEG2000 Multicomponent algorithm.
url http://dx.doi.org/10.1155/2008/248905
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AT emmanuelchristophe threedimensionalspihtcodingofvolumeimageswithrandomaccessandresolutionscalability
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