A gradient system based on anisotropic monochrome image processing with orientation auto-adjustment
Harbir Antil, Daiki Mizuno, Ken Shirakawa, Naotaka Ukai

TL;DR
This paper analyzes a pseudo-parabolic PDE system for anisotropic monochrome image processing, introducing an energy functional with orientation auto-adjustment, and proves its stability and well-posedness for improved computational efficiency.
Contribution
It presents a simplified energy functional with reduced derivatives, along with rigorous proofs of stability and well-posedness for the associated PDE system.
Findings
Proves well-posedness of the PDE system
Establishes stability of the image denoising process
Provides a mathematically rigorous framework for anisotropic image processing
Abstract
This paper is devoted to the mathematical analysis of a system of pseudo-parabolic partial differential equations governed by an energy functional, associated with anisotropic monochrome image processing. The energy functional is based on the one proposed by [Berkels et al. Cartoon extraction based on anisotropic image classification, SFB 611, 2006], which incorporates an orientation auto-adjustment mechanism, and our energy is a simplified version which reduces the order of derivatives to improve computational efficiency. The aim of this paper is to establish a stable minimization process that addresses some instability of the algorithm caused by the reduction of derivative order. As a part of the study, we here prove Main Theorems concerned with the well-posedness of the pseudo-parabolic system, and provide a mathematically rigorous guarantee for the stability of the image denoising…
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Taxonomy
TopicsMedical Image Segmentation Techniques · Satellite Image Processing and Photogrammetry · Advanced Image Fusion Techniques
