CNN-Based Sub-Surface Object Detection Using Ground Penetrating Radar

Rajat Mehta, Ahtisham Fazeel, Petrit Rama, Michael Danner, N. Bajçinca, Paul-Benjamin Riedel, Jakob Schwabe
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Abstract

Ground Penetrating Radar (GPR) has a wide range of applications such as scanning underground surface, locating utilities and detecting road damages by analysing the radargrams. Detecting sub-surface road damages is of great importance to the road maintenance authorities as it serves for monitoring of construction processes and helps in early detection of the damages leading to reduced repair costs. The road damages are detected by manual processing and require interpretation of domain experts. This often is too uneconomic for large scale application, therefore one way to solve this problem is to use an AI approach. In this work, this problem is addressed by developing a single-stage object detection system based on the YOLO series for detecting various patterns under the road surface including sub-surface damages. Advanced machine learning techniques like data augmentation and transfer learning are used to improve the detection results. We also present a model ensembling technique that can be used to combine multiple models for making better predictions. The ensemble helps in reducing the generalization errors and dispersion of predictions coming from the individual models. Experimental results verify that YOLO combined with model ensembling provides considerable performance improvements in comparison to the classical computer vision methods.
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基于cnn的探地雷达亚地表目标探测
探地雷达(GPR)具有广泛的应用,如扫描地下表面,定位公用设施和通过分析雷达图检测道路损坏。探测地下道路损坏对道路养护部门来说非常重要,因为它可以监测施工过程,有助于及早发现损坏,从而降低维修成本。道路损伤是通过人工处理来检测的,需要领域专家的解释。对于大规模应用来说,这通常太不经济,因此解决这个问题的一种方法是使用人工智能方法。在这项工作中,通过开发基于YOLO系列的单阶段目标检测系统来解决这个问题,该系统用于检测路面下的各种模式,包括地下损伤。先进的机器学习技术,如数据增强和迁移学习,被用来改善检测结果。我们还提出了一种模型集成技术,可用于组合多个模型以进行更好的预测。集成有助于减少来自单个模型的预测的泛化误差和分散性。实验结果表明,与传统的计算机视觉方法相比,YOLO与模型集成相结合的方法在性能上有很大的提高。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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