基于深度学习的超声波图像学习以开发气体泄漏检测模型的研究

Yunjeong Gu, Kwanghyun Park, Wonhee Lee, Byunghun Song, Jungpyo Hong, Junho Shin
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引用次数: 0

摘要

如果工业区发生气体泄漏,由于气体的不可见性,识别气体泄漏位置和预测事故规模都是一项挑战。在这项研究中,我们开发了一种基于深度学习的气体泄漏检测模型,通过利用气体泄漏时产生的超声波可视化技术,不仅可以获得气体泄漏状态,还可以获得气体泄漏位置和流量信息。研究方法大致分为数据收集法和模型学习法。首先,使用超声波相机收集数据,捕捉不同测量距离(1 米和 3 米)和气体泄漏流速(0-8 升/分钟)下的超声波图像。图像学习采用 YOLO(You Only Look Once)方法,根据气体泄漏流量范围设置类别后对模型进行训练。采集到的超声波图像的清晰度随着测量距离的增加而降低。此外,每种泄漏流量下的图像之间差别不大,这给肉眼分辨带来了挑战。然而,模型学习结果显示出很高的精确度,精确度为 0.960,召回率为 0.967,mAP(IoU(交叉点大于联合点)50%)为 0.987。将该模型作为一种气体安全管理技术应用于工业现场,可准确确定气体泄漏状态、气体泄漏位置和气体泄漏流量。这些信息有望指导工人采取适当的事故应对措施。
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Research on Deep learning based Ultrasonic Image Learning to Develop a Gas Leak Detection Model
If a gas leak occurs in an industrial area, identifying the location of the gas leak and predicting the scale of the accident are challenging owing to the invisible nature of the gas. In this study, we developed a deep learning-based gas leak detection model that can obtain not only the gas leak status, but also the gas leak location and flow rate information, by using technology to visualize the ultrasonic waves generated during gas leaks. Research methods are broadly categorized into data collection and model learning methods. First, data was collected using an ultrasonic camera to capture ultrasonic images at different measurement distances (1 and 3 m) and gas leak flow rates (0-8 L/min). YOLO (You Only Look Once) was used for image learning, and the model was trained after setting the class according to the gas-leak flow range. The clarity of the collected ultrasonic images decreased as the measurement distance increased. In addition, there was little difference between the images for each leakage flow rate, posing challenges in distinguishing them with the naked eye. However, the model learning results showed high accuracy, with a precision of 0.960, recall of 0.967, and mAP (IoU (Intersection over Union) 50%) of 0.987. Applying this model as a gas safety management technology at industrial sites, enables the accurate determination of gas leak status, gas leak location, and gas leakage flow. This information is expected to guide appropriate accident responses for workers.
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