Extending Guided Filters Through Effective Utilization of Multi-Channel Guide Images Based on Singular Value Decomposition

IF 2.9 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC
Kazu Mishiba
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Abstract

This paper proposes the SVD-based Guided Filter, designed to address key limitations of the original guided filter and its improved methods, providing better use of multi-channel guide images. First, we analyzed the guided filter framework, reinterpreting it from a patch-based perspective using singular value decomposition (SVD). This revealed that the original guided filter suppresses oscillatory components based on their eigenvalues. Building on this insight, we proposed a new filtering method that selectively suppresses or enhances these components through functions that respond to their eigenvalues. The proposed SVD-based Guided Filter offers improved control over edge preservation and noise reduction compared to the original guided filter and its improved methods, which often struggle to balance these tasks. We validated the proposed method across various image processing applications, including denoising, edge-preserving smoothing, detail enhancement, and edge-enhancing smoothing. The results demonstrated that the SVD-based Guided Filter consistently outperforms the original guided filter and its improved methods by making more effective use of color guide images. While the computational cost is slightly higher than the original guided filter, the method remains efficient and highly effective. Overall, the proposed SVD-based Guided Filter delivers notable improvements, offering a solid foundation for further advancements in guided filtering techniques.
基于奇异值分解有效利用多通道引导图像扩展引导滤波器
本文提出了基于奇异值分解的引导滤波器,旨在解决原有引导滤波器及其改进方法的主要局限性,从而更好地利用多通道引导图像。首先,我们分析了引导滤波器框架,使用奇异值分解(SVD)从基于patch的角度对其进行了重新解释。这表明,原来的引导滤波器抑制振荡分量是基于它们的特征值。基于这一见解,我们提出了一种新的过滤方法,通过响应其特征值的函数选择性地抑制或增强这些成分。与原始的引导滤波器及其改进方法相比,基于奇异值分解的引导滤波器在边缘保持和降噪方面提供了更好的控制,而原始的引导滤波器通常难以平衡这些任务。我们在各种图像处理应用中验证了该方法,包括去噪、边缘保持平滑、细节增强和边缘增强平滑。结果表明,基于奇异值分解的引导滤波器通过更有效地利用彩色引导图像,始终优于原始的引导滤波器及其改进方法。虽然计算成本略高于原始的引导滤波器,但该方法仍然是高效的。总体而言,本文提出的基于奇异值分解的引导滤波器有了显著的改进,为引导滤波技术的进一步发展奠定了坚实的基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
5.30
自引率
0.00%
发文量
0
审稿时长
22 weeks
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