
Consumer-grade depth sensors often generate low-quality, low-resolution depth images. Leveraging the correlation between depth and high-resolution RGB images presents a promising solution. While current methods struggle to capture the complex and dynamic relationship between these modalities, we propose a novel weighted analysis representation model for enhanced depth image processing. Our approach incorporates task-driven learning and dynamic guidance. By introducing a guided weight function, we refine the analysis representation model to better capture dependencies between depth and RGB images. Task-specific optimization is achieved through a task-driven learning framework. Moreover, to adapt to the evolving depth image quality, we employ dynamic guidance, where stage-wise parameters are learned to adjust guidance signals iteratively. The efficacy of our method is demonstrated through applications in depth image upsampling and noise reduction.
Depth image denoising, Guided image processing, Machine learning, Depth image enhancement
Depth image denoising, Guided image processing, Machine learning, Depth image enhancement
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