UAV Payload Detection Using Deep Learning and Data Augmentation

Ilmun Ku, Seungyeon Roh, Gyeong-hyeon Kim, Charles Taylor, Yaqin Wang, E. Matson
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引用次数: 2

Abstract

In recent years, the technology behind Unmanned Aerial Vehicles (UAVs) has continually advanced. However, with these developments, malicious activities employing UAVs have also been on the rise. Within this study, Deep Learning (DL) algorithms are utilized to detect and classify UAVs transporting payload based on the sound they release. In order to exercise DL algorithms on a set of data, a sufficient amount of audio data is necessary to obtain a more reliable result. So UAV sound recordings have been collected alongside the use of data augmentation to secure a satisfactory sample size for testing purposes. Afterward, a feature-based classification was applied to the groups of audio identifying each UAV’s payload (or lack thereof). Lastly, Convolutional Neural Network (CNN), Recurrent Neural Network (RNN), and Convolutional Recurrent Neural Network(CRNN) are utilized in analyzing the final data-set. They are evaluated for their abilities to correctly categorize the unloaded, one payload, and two payload of UAV classes and noise class solely through audio. As a result, MFCC showed the best performance in CNN, RNN, and CRNN, which are 0.9493, 0.8133, and 0.9174 accuracies. Our contribution to this study is that a cost-efficient data collection method was applied by utilizing laptop microphones. Moreover, DL technology was used in UAV payload detection, whereas neural network was used in prior study. Also, the best feature for UAV payload detection with the three DL technologies was found. The limitation of the paper is that only two UAV models and one kind of payload were used to collect data. Diverse UAVs and payload are expected to be used to collect data in future works.
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基于深度学习和数据增强的无人机有效载荷检测
近年来,无人驾驶飞行器(uav)背后的技术不断进步。然而,随着这些发展,使用无人机的恶意活动也在增加。在这项研究中,深度学习(DL)算法被用于根据无人机释放的声音来检测和分类运输有效载荷的无人机。为了在一组数据上使用深度学习算法,需要足够数量的音频数据来获得更可靠的结果。因此,UAV录音已经收集与使用数据增强,以确保一个令人满意的样本量用于测试目的。之后,基于特征的分类应用于识别每个无人机有效载荷(或缺乏有效载荷)的音频组。最后,利用卷积神经网络(CNN)、递归神经网络(RNN)和卷积递归神经网络(CRNN)对最终数据集进行分析。他们被评估为正确分类无人机类别的卸载,一个有效载荷,两个有效载荷和噪音类别的能力,仅通过音频。结果表明,MFCC在CNN、RNN和CRNN中表现最好,准确率分别为0.9493、0.8133和0.9174。我们对这项研究的贡献是利用笔记本电脑麦克风采用了一种成本效益高的数据收集方法。此外,将深度学习技术应用于无人机有效载荷检测,而之前的研究主要采用神经网络。此外,发现了三种DL技术用于UAV有效载荷检测的最佳特征。本文的局限性在于只使用了两种型号的无人机和一种载荷进行数据采集。在未来的工作中,预计将使用各种无人机和有效载荷来收集数据。
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