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1.重庆邮电大学自动化学院,重庆 400065
2.重庆金美通信有限责任公司,重庆 400060
Received:28 May 2025,
Accepted:08 December 2025,
Published:25 December 2025
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刘明杰, 吕梦琳, 刘平, 等. 基于双域特征交互和局部相关性上采样的单幅图像去雾方法[J]. 电子学报, 2025, 53(12): 4349-4363.
LIU Ming-jie, LYU Meng-lin, LIU Ping, et al. Dual-Domain Feature Interaction and Local Correlation Upsampling Network for Single Image Dehazing[J]. Acta Electronica Sinica, 2025, 53(12): 4349-4363.
刘明杰, 吕梦琳, 刘平, 等. 基于双域特征交互和局部相关性上采样的单幅图像去雾方法[J]. 电子学报, 2025, 53(12): 4349-4363. DOI:10.12263/DZXB.20250429
LIU Ming-jie, LYU Meng-lin, LIU Ping, et al. Dual-Domain Feature Interaction and Local Correlation Upsampling Network for Single Image Dehazing[J]. Acta Electronica Sinica, 2025, 53(12): 4349-4363. DOI:10.12263/DZXB.20250429
雾霾天大气中的悬浮颗粒会导致可见光系统的成像质量显著降低,产生图像对比度下降、颜色失真、细节信息丢失等图像退化现象.这种退化会严重影响计算机视觉下游任务的性能.因此,通常会把图像去雾作为诸如目标检测、目标分割等高阶视觉任务的预处理过程,旨在为后续任务提供高质量的图像内容信息.基于U型网络的图像去雾架构因具有高效、注重细节特征、轻量化等特点而得到了广泛关注.然而,当前该类架构主要聚焦于通过提取图像的空间域特征达成去雾效果,忽略了频域特征对图像去雾的影响.U型结构中解码层采用的最近邻插值法上采样方法还会导致图像空间信息的丢失,进而影响深层语义信息向浅层的有效传递,使得重构的清晰图像不够理想.针对上述问题,本文以U-Net为基础结构提出一种双域特征交互和局部相关性上采样的单幅图像去雾方法.首先在特征提取部分设计了双域特征交互模块, 分别通过双路特征融合子模块和频域特征增强子模块针对图像的空间域与频域特征分别提取,并对这些特征进行交互通过引入频域信息提升模型对图像结构特征的捕捉能力.接着在解码层上采样部分设计局部相关性上采样模块,利用注意力机制捕捉每个特征图中局部信息的内在相关性,并将含有特征补偿的深层语义特征传递至浅层, 有效地实现了不同尺度特征中语义信息的提取和融合. 此外,为了直观表征算法的去雾性能,本文提出一种基于热力图的对比分析方法,即通过颜色梯度直观量化去雾效果差异,其可以有效反映各去雾方法在图像细节还原方面的性能差异.实验结果表明,本文提出的图像去雾方法在确保较低参数量和模型计算复杂度的同时,在客观指标和主观视觉效果上均取得了较好的效果,在SOTS-Indoor、SOTS-Outdoor和Haze4K3个数据上的峰值信噪比(Peak Signal Noise Ratio,PSNR)和结构相似性指数(Structural Similarity Index Measure,SSIM)分别达到了41.46 dB和0.994 3、37.73 dB和0.993 6、34.72 dB和0.993.
Suspended particulates of the atmosphere in hazy weather markedly degrade the imaging quality of visible light systems
which manifests as reduced image contrast
color distortion
and loss of fine-grained details. Such image deterioration substantially impairs the performance of computer vision tasks. Consequently
image dehazing is commonly employed as a preprocessing step for high-level visual tasks to furnish processes with high-quality visual data. U-Net-based image dehazing architecture has garnered widespread attention due to its efficiency
detail-oriented feature extraction
and lightweight characteristics. However
current U-Net-based networks realize image dehazing based on features extracted from space domain
ignoring the impact of features in frequency domain. In addition
the decoder of U-Net-based networks always realizes feature upsampling by nearest neighbor interpolation. It may cause spatial information loss and impact semantic information transmission from high-level to low-level
which adversely affects clear image restriction. To address the above issues
this paper proposes a novel image dehazing algorithm with dual-domain feature interaction and local correlation upsampling. Specifically
the dual-domain feature interaction module
including dual-path feature fusion submodule and frequency domain feature enhancement sub-module
is designed to extract and fuse the spatial domain and frequency domain features of the image. It can enhance the ability to capture the structural features of the image by introducing frequency domain information. Local correlation upsampling module embedded in decoder of U-Net is designed to capture the intrinsic correlation of local information of each feature map by attention mechanism
and transmit the high-level features with the compensatory information the low-level features simultaneously. In addition
we propose a contrast analysis method based on heat maps to visually the dehazing performance of different methods
which uses color gradients to quantitatively measure the differences in the dehazing effect. It can effectively reflect the performance differences of various dehazing methods in terms of image detail restoration. The experimental results demonstrate that the dehazing effect of our proposed method is superior to that of the compared method in both quantitative and qualitative evaluations. The peak signal noise ratio (PSNR) and structural similarity index measure (SSIM) values on the SOTS-Indoor
SOTS-Outdoor and Hzae4K datasets achieve 41.46 dB and 0.994 3
37.73 dB and 0.993 6
34.72 dB and 0.993
respectively.
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