Deep Linear Array Pushbroom Image Restoration: A Degradation Pipeline and Jitter-Aware Restoration Network
Zida Chen, Ziran Zhang, Haoying Li, Menghao Li, Yueting Chen, Qi Li, Huajun Feng, Zhihai Xu, Shiqi Chen
Abstract
Linear Array Pushbroom (LAP) imaging technology is widely used in the realm of remote sensing. However, images acquired through LAP always suffer from distortion and blur because of camera jitter. Traditional methods for restoring LAP images, such as algorithms estimating the point spread function (PSF), exhibit limited performance. To tackle this issue, we propose a Jitter-Aware Restoration Network (JAR-Net), to remove the distortion and blur in two stages. In the first stage, we formulate an Optical Flow Correction (OFC) block to refine the optical flow of the degraded LAP images, resulting in pre-corrected images where most of the distortions are alleviated. In the second stage, for further enhancement of the pre-corrected images, we integrate two jitteraware techniques within the Spatial and Frequency Residual (SFRes) block: 1) introducing Coordinate Attention (CoA) to the SFRes block in order to capture the jitter state in orthogonal direction; 2) manipulating image features in both spatial and frequency domains to leverage local and global priors. Additionally, we develop a data synthesis pipeline, which applies Continue Dynamic Shooting Model (CDSM) to simulate realistic degradation in LAP images. Both the proposed JARNet and LAP image synthesis pipeline establish a foundation for addressing this intricate challenge. Extensive experiments demonstrate that the proposed two-stage method outperforms state-of-the-art image restoration models. Code is available at https://github.com/JHW2000/JARNet .
Ask about this paper
Your agent reads all of it.
Lune indexed this paper to the last equation, along with the top-tier papers that cite it. Ask a question and the answer quotes them.
Your agent calls
Luneget_paper_fulltext
Free to start. No credit card required.
Terminal
Install the CLIlune papers fulltext a1b48b01-dbd7-4e27-948d-ee5aae703f2fCited by top-tier papers1
Ask how each one uses itBuilds on9
- Restormer: Efficient Transformer for High-Resolution Image RestorationSyed Waqas Zamir, Aditya Arora, Salman Khan, Munawar Hayat et al.CVPR 2022 · 3,348 citations
- Uformer: A General U-Shaped Transformer for Image RestorationZhendong Wang, Xiaodong Cun, Jianmin Bao, Wengang Zhou et al.CVPR 2022 · 1,970 citations
- Rethinking Coarse-to-Fine Approach in Single Image DeblurringSung-Jin Cho, Seo-Won Ji, Jun-Pyo Hong, Seung-Won Jung et al.ICCV 2021 · 799 citations
- Mask-guided Spectral-wise Transformer for Efficient Hyperspectral Image ReconstructionYuanhao Cai, Jing Lin, Xiaowan Hu, Haoqian Wang et al.CVPR 2022 · 310 citations
- Intriguing Findings of Frequency Selection for Image DeblurringXintian Mao, Yiming Liu, Fengze Liu, Qingli Li et al.AAAI 2023 · 249 citations
Related papers
- Joint Appearance and Motion Learning for Efficient Rolling Shutter CorrectionBin Fan, Yuxin Mao, Yuchao Dai, Zhexiong Wan et al.CVPR 2023
- An End-to-End Real-World Camera Imaging PipelineKepeng Xu, Zijia Ma, Li Xu, Gang He et al.ACM MM 2024 · 9 citations
- Rolling Shutter Correction with Intermediate Distortion Flow EstimationMingdeng Cao, Sidi Yang, Yujiu Yang, Yinqiang ZhengCVPR 2024
- Rethinking Video Frame Interpolation from Shutter Mode Induced DegradationXiang Ji, Zhixiang Wang, Zhihang Zhong, Yinqiang ZhengICCV 2023 · 7 citations
- Joint Demosaicing and Denoising for Spike CameraYanchen Dong, Ruiqin Xiong, Jing Zhao, Jian Zhang et al.AAAI 2024 · 18 citations
