Image Content Enhancement Through Salient Regions Segmentation for People With Color Vision Deficiencies
Authors: Bruno, A., Gugliuzza, F., Ardizzone, E., Giunta, C.C. and Pirrone, R.
Journal: i-Perception
Volume: 10
Issue: 3
eISSN: 2041-6695
DOI: 10.1177/2041669519841073
Abstract:Color vision deficiencies affect visual perception of colors and, more generally, color images. Several sciences such as genetics, biology, medicine, and computer vision are involved in studying and analyzing vision deficiencies. As we know from visual saliency findings, human visual system tends to fix some specific points and regions of the image in the first seconds of observation summing up the most important and meaningful parts of the scene. In this article, we provide some studies about human visual system behavior differences between normal and color vision-deficient visual systems. We eye-tracked the human fixations in first 3 seconds of observation of color images to build real fixation point maps. One of our contributions is to detect the main differences between the aforementioned human visual systems related to color vision deficiencies by analyzing real fixation maps among people with and without color vision deficiencies. Another contribution is to provide a method to enhance color regions of the image by using a detailed color mapping of the segmented salient regions of the given image. The segmentation is performed by using the difference between the original input image and the corresponding color blind altered image. A second eye-tracking of color blind people with the images enhanced by using recoloring of segmented salient regions reveals that the real fixation points are then more coherent (up to 10%) with the normal visual system. The eye-tracking data collected during our experiments are in a publicly available dataset called Eye-Tracking of Color Vision Deficiencies.
https://eprints.bournemouth.ac.uk/34237/
Source: Scopus
Image Content Enhancement Through Salient Regions Segmentation for People With Color Vision Deficiencies.
Authors: Bruno, A., Gugliuzza, F., Ardizzone, E., Giunta, C.C. and Pirrone, R.
Journal: Iperception
Volume: 10
Issue: 3
Pages: 2041669519841073
ISSN: 2041-6695
DOI: 10.1177/2041669519841073
Abstract:Color vision deficiencies affect visual perception of colors and, more generally, color images. Several sciences such as genetics, biology, medicine, and computer vision are involved in studying and analyzing vision deficiencies. As we know from visual saliency findings, human visual system tends to fix some specific points and regions of the image in the first seconds of observation summing up the most important and meaningful parts of the scene. In this article, we provide some studies about human visual system behavior differences between normal and color vision-deficient visual systems. We eye-tracked the human fixations in first 3 seconds of observation of color images to build real fixation point maps. One of our contributions is to detect the main differences between the aforementioned human visual systems related to color vision deficiencies by analyzing real fixation maps among people with and without color vision deficiencies. Another contribution is to provide a method to enhance color regions of the image by using a detailed color mapping of the segmented salient regions of the given image. The segmentation is performed by using the difference between the original input image and the corresponding color blind altered image. A second eye-tracking of color blind people with the images enhanced by using recoloring of segmented salient regions reveals that the real fixation points are then more coherent (up to 10%) with the normal visual system. The eye-tracking data collected during our experiments are in a publicly available dataset called Eye-Tracking of Color Vision Deficiencies.
https://eprints.bournemouth.ac.uk/34237/
Source: PubMed
Image Content Enhancement Through Salient Regions Segmentation for People With Color Vision Deficiencies
Authors: Bruno, A., Gugliuzza, F., Ardizzone, E., Giunta, C.C. and Pirrone, R.
Journal: I-PERCEPTION
Volume: 10
Issue: 3
ISSN: 2041-6695
DOI: 10.1177/2041669519841073
https://eprints.bournemouth.ac.uk/34237/
Source: Web of Science (Lite)
Image Content Enhancement Through Salient Regions Segmentation for People With Color Vision Deficiencies
Authors: Bruno, A., Gugliuzza, F., Ardizzone, E., Giunta, C.C. and Pirrone, R.
Journal: i-Perception
Volume: 10
DOI: 10.1177/2041669519841073
https://eprints.bournemouth.ac.uk/34237/
Source: Manual
Image Content Enhancement Through Salient Regions Segmentation for People With Color Vision Deficiencies.
Authors: Bruno, A., Gugliuzza, F., Ardizzone, E., Giunta, C.C. and Pirrone, R.
Journal: i-Perception
Volume: 10
Issue: 3
Pages: 2041669519841073
eISSN: 2041-6695
ISSN: 2041-6695
DOI: 10.1177/2041669519841073
Abstract:Color vision deficiencies affect visual perception of colors and, more generally, color images. Several sciences such as genetics, biology, medicine, and computer vision are involved in studying and analyzing vision deficiencies. As we know from visual saliency findings, human visual system tends to fix some specific points and regions of the image in the first seconds of observation summing up the most important and meaningful parts of the scene. In this article, we provide some studies about human visual system behavior differences between normal and color vision-deficient visual systems. We eye-tracked the human fixations in first 3 seconds of observation of color images to build real fixation point maps. One of our contributions is to detect the main differences between the aforementioned human visual systems related to color vision deficiencies by analyzing real fixation maps among people with and without color vision deficiencies. Another contribution is to provide a method to enhance color regions of the image by using a detailed color mapping of the segmented salient regions of the given image. The segmentation is performed by using the difference between the original input image and the corresponding color blind altered image. A second eye-tracking of color blind people with the images enhanced by using recoloring of segmented salient regions reveals that the real fixation points are then more coherent (up to 10%) with the normal visual system. The eye-tracking data collected during our experiments are in a publicly available dataset called Eye-Tracking of Color Vision Deficiencies.
https://eprints.bournemouth.ac.uk/34237/
Source: Europe PubMed Central
Image Content Enhancement Through Salient Regions Segmentation for People With Color Vision Deficiencies.
Authors: Bruno, A., Gugliuzza, F., Ardizzone, E., Giunta, C.C. and Pirrone, R.
Journal: Iperception
Volume: 10
Issue: 3
ISSN: 2041-6695
Abstract:Color vision deficiencies affect visual perception of colors and, more generally, color images. Several sciences such as genetics, biology, medicine, and computer vision are involved in studying and analyzing vision deficiencies. As we know from visual saliency findings, human visual system tends to fix some specific points and regions of the image in the first seconds of observation summing up the most important and meaningful parts of the scene. In this article, we provide some studies about human visual system behavior differences between normal and color vision-deficient visual systems. We eye-tracked the human fixations in first 3 seconds of observation of color images to build real fixation point maps. One of our contributions is to detect the main differences between the aforementioned human visual systems related to color vision deficiencies by analyzing real fixation maps among people with and without color vision deficiencies. Another contribution is to provide a method to enhance color regions of the image by using a detailed color mapping of the segmented salient regions of the given image. The segmentation is performed by using the difference between the original input image and the corresponding color blind altered image. A second eye-tracking of color blind people with the images enhanced by using recoloring of segmented salient regions reveals that the real fixation points are then more coherent (up to 10%) with the normal visual system. The eye-tracking data collected during our experiments are in a publicly available dataset called Eye-Tracking of Color Vision Deficiencies.
https://eprints.bournemouth.ac.uk/34237/
Source: BURO EPrints