Aug 2026· PLoS ONE· Vol 21, pp. e0352586· 0 citations· 77 references
Medicine
TL;DR
DMSH-Net is designed to implicitly capture haze variations through hierarchical feature recalibration, nonlinear residual refinement, and multi-scale contextual aggregation, and validating its robustness in complex real-world dehazing scenarios.
Abstract
Single-image dehazing remains a challenging low-level vision task because haze degradation is inherently depth-dependent and spatially non-uniform. To address this problem, we propose DMSH-Net, a Depth-Aware Multi-Scale Hybrid Vision Network specifically designed for robust single-image dehazing. DMSH-Net is designed to implicitly capture haze variations through hierarchical feature recalibration, nonlinear residual refinement, and multi-scale contextual aggregation. Specifically, we introduce a redesigned convolutional squeeze-and-excitation attention (CSEA) module, which replaces fully connected transformations with convolutional operations and global average pooling to jointly model channel dependencies and spatial context. Building on CSEA, a nonlinear CSEA-coupled residual block (NCCRB) is developed to enhance local feature representation and improve adaptability to haze with varying densities. Furthermore, a multi-scale dilated convolution bottleneck is incorporated to enlarge the receptive field and aggregate haze-aware contextual information across multiple spatial scales, thereby improving the restoration of regions with varying scene depths. Extensive experiments on standard benchmarks demonstrate that DMSH-Net consistently achieves superior quantitative performance across full-reference and no-reference evaluations, thereby validating its robustness in complex real-world dehazing scenarios.
A dehazing framework named DKS-Net is proposed which fully utilizes the physics guiding features and extracting structural information in the spatial domain, and a Kernel Selective Feature Extraction Module (KSFE) is introduced to effectively captures structural patterns via large-kernel convolutions with dynamic selec...
Zehao Shi, Han Wang, Xinyue Liu· International Conference on...· 0 citations
Real-world remote sensing image dehazing (RSID) remains challenging because atmospheric scattering, spatially non-uniform haze and colour distortion jointly degrade structural and spectral information. Most deep learning methods rely on RGB inputs and spatial-domain feature extraction, which limits their ability to sep...
Mei Lu, Shang-Liang Shao, Shan-Liang Yao· 0 citations
Dehazing is a basic image restoration problem that is used to restore the scene information from degraded images caused by atmospheric scattering and haze. Existing image dehazing techniques have been shown to be poor performers in natural image denoising in the presence of haze or limited for generalization to other h...
Malladi Sunderrao, Dilip Kumar· 2026 International Conferenc...· 0 citations
Remote sensing imagery is highly susceptible to haze, which can obscure visibility and limit the reliability of downstream analysis tasks, making aerial image dehazing critical for space and defense applications. Existing methods often fail to faithfully restore structural details and color fidelity under spatially var...
Shiladitya Mondal, S. K. Dhara, Anusha Vupputuri· IEEE Geoscience and Remote S...· 0 citations
A novel dual-stream perception interaction network, termed DSPI-Net, which dynamically integrates low-level spatial features and multi-scale features to efficiently restore realistic RS images, and ensures suitability for implementation on resource-constrained edge devices, meeting real-time processing requirements.
Pan-Pan Liu, Ru-Meng Liu, Bai-Jing Liu et al.· Engineering Research Express· 0 citations
This work presents a Dehazing Enhanced Multi-branch Attention Network (DEMANet) for effective remote sensing image dehazing that outperforms existing algorithms in haze removal, while simultaneously preserving intricate image details and color fidelity.
Pei-Xue Liu, Shu Liu, Peng-Fei He et al.· PLoS ONE· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.