2006
DOI: 10.1117/12.650246
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Texture segmentation using adaptive Gabor filters based on HVS

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Cited by 3 publications
(7 citation statements)
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“…The quantitative comparison shows that the proposed method produces similar segmentation with percentage errors of ≈ 3.1% and ≈ 3.5%, respectively compared to the results in [10], with especially better discrimination along the boundaries. Secondly, we compared our results in [4] qualitatively and the results are shown in Figure 10.…”
Section: Different Region Shapesmentioning
confidence: 96%
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“…The quantitative comparison shows that the proposed method produces similar segmentation with percentage errors of ≈ 3.1% and ≈ 3.5%, respectively compared to the results in [10], with especially better discrimination along the boundaries. Secondly, we compared our results in [4] qualitatively and the results are shown in Figure 10.…”
Section: Different Region Shapesmentioning
confidence: 96%
“…However, in homogeneous textures the method shows good segmentation results as shown in the last two rows of Figure 8. The next section compares the algorithm with two proposed methods in the literatures [10,4]. Firstly, the results are compared with an algorithm proposed by [10] based on the two images shown in Figure 9.…”
Section: Different Region Shapesmentioning
confidence: 98%
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“…We take each filter ) ( , z v µ ψ as a Gabor channel, the 64 filters form a set of parallel and quasi-independent channels which are sensitive to visual signal with some specific scale v and orientation µ [18][19][20], thus the 2D Gaborface representations from different channels seems to provide an observer with multiple cues and this in itself facilitates data fusion [14]. Consequently we shall study three approaches to divide the 64 Gaborface representations from different channels into groups, and simultaneously apply classification algorithm on these feature groups, and then perform the decision level fusion to obtain the final classification results.…”
Section: B Multichannel Gaborface Representation Modelmentioning
confidence: 99%
“…We take each filter w l,v (z) as a Gabor channel, the 64 filters form a set of parallel and quasi-independent channels which are sensitive to visual signal with some specific scale v and orientation l [16,21,22], thus the 2D Gaborface representations from different channels seems to provide an observer with multiple cues and this in itself facilitates data fusion [15]. Consequently we shall study three approaches to divide the 64 Gaborface representations from different channels into groups, and simultaneously apply classification algorithm on these feature groups, and then perform the decision level fusion to obtain the final classification results.…”
Section: Multichannel Gaborface Representation Modelmentioning
confidence: 99%