在未衰减双树复小波域中学习红外衰减以实现相干可见光图像融合

IF 3.1 3区 物理与天体物理 Q2 INSTRUMENTS & INSTRUMENTATION
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引用次数: 0

摘要

传统的红外(IR)和可见光(VIS)图像融合方法要求源图像具有相同的分辨率水平,但由于红外图像固有的低分辨率特性,这可能会造成问题。在本文中,我们介绍了一种创新的图像融合方法,它能协调红外-可见光源图像的分辨率,从而生成具有更高分辨率的融合图像。我们采用卷积神经网络模型来恢复红外数据中的实时图像降级,尤其侧重于通过多降级分辨率增强网络(MDREN)实现超分辨率。在融合过程中,我们采用了未估计双树复小波变换(UTT-CWT),因为它具有接近移位不变性和更好的方向性能力。这使得融合后的图像信息连贯,噪声和损失最小。实验采用了五种图像质量评估指标,将所提出的方法与九种最先进的方法进行了比较,并显示了其功效。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Learning infrared degradations for coherent visible image fusion in the undecimated dual-tree complex wavelet domain
Traditional infrared (IR) and visible (VIS) image fusion methods demand identical resolution levels for source images, which can be problematic due to the inherent low-resolution nature of IR imagery. In this paper, we introduce an innovative image fusion approach that harmonizes resolution across IR-VIS source images, leading to the generation of fused images with higher resolution. We employ a convolutional neural network model to recover the real-time image degradations in IR data, with a particular focus on super-resolution through the multi degradation resolution enhancement network (MDREN). We adopt undecimated dual-tree complex wavelet transform (UDT-CWT) in our fusion process due to its near shift invariance and better directionality capabilities. This results in coherent information of the fused images with minimized noise and loss. Experiments employing five image quality assessment measures are used to compare the proposed method to nine state-of-the-art approaches and show its efficacy.
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来源期刊
CiteScore
5.70
自引率
12.10%
发文量
400
审稿时长
67 days
期刊介绍: The Journal covers the entire field of infrared physics and technology: theory, experiment, application, devices and instrumentation. Infrared'' is defined as covering the near, mid and far infrared (terahertz) regions from 0.75um (750nm) to 1mm (300GHz.) Submissions in the 300GHz to 100GHz region may be accepted at the editors discretion if their content is relevant to shorter wavelengths. Submissions must be primarily concerned with and directly relevant to this spectral region. Its core topics can be summarized as the generation, propagation and detection, of infrared radiation; the associated optics, materials and devices; and its use in all fields of science, industry, engineering and medicine. Infrared techniques occur in many different fields, notably spectroscopy and interferometry; material characterization and processing; atmospheric physics, astronomy and space research. Scientific aspects include lasers, quantum optics, quantum electronics, image processing and semiconductor physics. Some important applications are medical diagnostics and treatment, industrial inspection and environmental monitoring.
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