2012
DOI: 10.1016/j.sigpro.2011.07.018
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Quaternion Zernike moments and their invariants for color image analysis and object recognition

Abstract: International audienceMoments and moment invariants have become a powerful tool in pattern recognition and image analysis. Conventional methods to deal with color images are based on RGB decomposition or graying, which may lose some significant color information. In this paper, by using the algebra of quaternions, we introduce the quaternion Zernike moments (QZMs) to deal with the color images in a holistic manner. It is shown that the QZMs can be obtained from the conventional Zernike moments of each channel.… Show more

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Cited by 177 publications
(55 citation statements)
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“…Quaternions are mainly used in computer vision problems due to their ability to represent 3D rotations easily. They are also used for the representation of color images by encoding the RGB channels into their imaginary parts [13][14]. The main advantage of quaternion-based representation is that any information stored in array structures can be totally treated as a vector.…”
Section: A Quaternionsmentioning
confidence: 99%
“…Quaternions are mainly used in computer vision problems due to their ability to represent 3D rotations easily. They are also used for the representation of color images by encoding the RGB channels into their imaginary parts [13][14]. The main advantage of quaternion-based representation is that any information stored in array structures can be totally treated as a vector.…”
Section: A Quaternionsmentioning
confidence: 99%
“…Orthogonality here means that there is no redudancy or overlapping of information between the moments. Thus moments are uniquely quantified based on their orders ( [6,7]). The distinguishing feature of ZM is the invariance of its magnitude with respect to rotation ( [8,9,10,11]).…”
Section: Zernike Momentmentioning
confidence: 99%
“…Despite image moments' close mathematical nature to DFT, the rst quaternion moment families have been recently introduced, based on Fourier-Mellin [7] and Zernike [3] polynomials. However, the specic moments families are calculated based on continuous orthogonal kernels which are dened in the polar coordinate system.…”
Section: Quaternion Momentsmentioning
confidence: 99%