A Patch-Based Structural Masking Model with an Application to Compression

The ability of an image region to hide or mask a given target signal continues to play a key role in the design of numerous image processing and vision systems. However, current state-of-the-art models of visual masking have been optimized for artificial targets placed upon unnatural backgrounds. In...

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Main Authors: Damon M. Chandler, Matthew D. Gaubatz, Sheila S. Hemami
Format: Article
Language:English
Published: SpringerOpen 2009-01-01
Series:EURASIP Journal on Image and Video Processing
Online Access:http://dx.doi.org/10.1155/2009/649316
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spelling doaj-d6d660384ecb497c9bb2da3b14599c392020-11-25T00:15:13ZengSpringerOpenEURASIP Journal on Image and Video Processing1687-51761687-52812009-01-01200910.1155/2009/649316A Patch-Based Structural Masking Model with an Application to CompressionDamon M. ChandlerMatthew D. GaubatzSheila S. HemamiThe ability of an image region to hide or mask a given target signal continues to play a key role in the design of numerous image processing and vision systems. However, current state-of-the-art models of visual masking have been optimized for artificial targets placed upon unnatural backgrounds. In this paper, we (1) measure the ability of natural-image patches in masking distortion; (2) analyze the performance of a widely accepted standard masking model in predicting these data; and (3) report optimal model parameters for different patch types (textures, structures, and edges). Our results reveal that the standard model of masking does not generalize across image type; rather, a proper model should be coupled with a classification scheme which can adapt the model parameters based on the type of content contained in local image patches. The utility of this adaptive approach is demonstrated via a spatially adaptive compression algorithm which employs patch-based classification. Despite the addition of extra side information and the high degree of spatial adaptivity, this approach yields an efficient wavelet compression strategy that can be combined with very accurate rate-control procedures. http://dx.doi.org/10.1155/2009/649316
collection DOAJ
language English
format Article
sources DOAJ
author Damon M. Chandler
Matthew D. Gaubatz
Sheila S. Hemami
spellingShingle Damon M. Chandler
Matthew D. Gaubatz
Sheila S. Hemami
A Patch-Based Structural Masking Model with an Application to Compression
EURASIP Journal on Image and Video Processing
author_facet Damon M. Chandler
Matthew D. Gaubatz
Sheila S. Hemami
author_sort Damon M. Chandler
title A Patch-Based Structural Masking Model with an Application to Compression
title_short A Patch-Based Structural Masking Model with an Application to Compression
title_full A Patch-Based Structural Masking Model with an Application to Compression
title_fullStr A Patch-Based Structural Masking Model with an Application to Compression
title_full_unstemmed A Patch-Based Structural Masking Model with an Application to Compression
title_sort patch-based structural masking model with an application to compression
publisher SpringerOpen
series EURASIP Journal on Image and Video Processing
issn 1687-5176
1687-5281
publishDate 2009-01-01
description The ability of an image region to hide or mask a given target signal continues to play a key role in the design of numerous image processing and vision systems. However, current state-of-the-art models of visual masking have been optimized for artificial targets placed upon unnatural backgrounds. In this paper, we (1) measure the ability of natural-image patches in masking distortion; (2) analyze the performance of a widely accepted standard masking model in predicting these data; and (3) report optimal model parameters for different patch types (textures, structures, and edges). Our results reveal that the standard model of masking does not generalize across image type; rather, a proper model should be coupled with a classification scheme which can adapt the model parameters based on the type of content contained in local image patches. The utility of this adaptive approach is demonstrated via a spatially adaptive compression algorithm which employs patch-based classification. Despite the addition of extra side information and the high degree of spatial adaptivity, this approach yields an efficient wavelet compression strategy that can be combined with very accurate rate-control procedures.
url http://dx.doi.org/10.1155/2009/649316
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