红外超分辨率简化WDSR级联边缘检测

Kuan-Min Lee, Pei-Jun Lee, Trong-An Bui
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引用次数: 0

摘要

边缘检测已经成为解决超分辨率问题的技术之一。在这项工作中,我们提出了一项基于WDSR(宽激活超分辨率)模型的研究,并结合了三种边缘检测技术:Sobel、Kirsch和Prewitt。对于模型部分,我们通过减少每个残差块中的卷积层数和减少残差块的数量来简化原始WDSR模型,以减少计算机的计算负担。至于数据集,我们使用自己的高分辨率红外数据集,其中包含7968张用于训练的红外图像和1359张用于验证的图像。利用这些数据进行双三次插值,生成低分辨率图像,并将低分辨率图像与原始数据进行配对,观察结果。在我们的工作结束时,我们成功地证明了该模型能够成功地将计算时间从基线减少约11%,同时将红外图像的超分辨率质量保持在大约1%的差异内。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Edge Detection Cascaded with Simplified WDSR of IR Super Resolution
Edge Detection has been one of the techniques that can be used to solve super resolution problems. In this work, we present a research that was based on the WDSR (Wide Activation Super Resolution) model and the combination of three edge detection techniques: Sobel, Kirsch, and Prewitt. For the model portion, we simplified the original WDSR model by reducing the number of convolutional layers in each residual block and decreasing the number of residual blocks to cut down the computational burden of our computer. As for the dataset, we used our own high-resolution IR dataset that contained 7968 IR images for training and 1359 images for validation. These data are used to perform bicubic interpolation to create low-resolution images and the low-resolution images were paired with the original data to observe the result. By the end of our work, we managed to show that the model was capable to successfully reduce the computational time by approximately 11% from the baseline while maintaining the quality of super resolution for IR image within roughly 1% difference.
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