An Approach for Aircraft Detection using VGG19 and OCSVM

Marwa A. Hameed, Zainab A. Khalaf
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Abstract

: Aircraft detection is an essential and noteworthy area of object detection that has received significant interest from scholars, especially with the progress of deep learning techniques. Aircraft detection is now extensively employed in various civil and military domains. Automated aircraft detection systems play a crucial role in preventing crashes, controlling airspace, and improving aviation tra ffi c and safety on a civil scale. In the context of military operations, detection systems play a crucial role in quickly locating aircraft for surveillance purposes, enabling decisive military strategies in real time. This article proposes a system that accurately detects airplanes independent of their type, model, size, and color variations. However, the diversity of aircraft images, including variations in size, illumination, resolution, and other visual factors, poses challenges to detection performance. As a result, an aircraft detection system must be designed to distinguish airplanes clearly without a ff ecting the aircraft’s position, rotation, or visibility. The methodology involves three significant steps: feature extraction, detection, and evaluation. Firstly, deep features will be extracted using a pre-trained VGG19 model and transfer learning principle. Subsequently, the extracted feature vectors are employed in One Class Support Vector Machine (OCSVM) for detection purposes. Finally, the results are assessed using evaluation criteria to ensure the e ff ectiveness and accuracy of the proposed system. The experimental evaluations were conducted across three distinct datasets: Caltech-101, Military dataset, and MTARSI dataset. Furthermore, the study compares its experimental results with those of comparable publications released in the past three years. The findings illustrate the e ffi cacy of the proposed approach, achieving F1-scores of 96% on the Caltech-101 dataset and 99% on both Military and MTARSI datasets.
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利用 VGG19 和 OCSVM 检测飞机的方法
:飞机检测是物体检测中一个重要而值得关注的领域,尤其是随着深度学习技术的发展,这一领域受到了学者们的极大关注。目前,飞机检测已广泛应用于各种民用和军用领域。在民用领域,飞机自动探测系统在防止坠机、控制空域、改善航空运输和安全方面发挥着至关重要的作用。在军事行动中,探测系统在快速定位飞机进行监视方面发挥着至关重要的作用,可实时实施决定性的军事战略。本文提出的系统可准确检测飞机,而不受飞机类型、型号、大小和颜色变化的影响。然而,飞机图像的多样性,包括尺寸、光照、分辨率和其他视觉因素的变化,给检测性能带来了挑战。因此,飞机检测系统的设计必须能够在不影响飞机位置、旋转或可见度的情况下清晰地分辨出飞机。该方法包括三个重要步骤:特征提取、检测和评估。首先,将使用预先训练好的 VGG19 模型和迁移学习原理提取深度特征。然后,将提取的特征向量用于单类支持向量机(OCSVM)进行检测。最后,使用评估标准对结果进行评估,以确保所提系统的有效性和准确性。实验评估在三个不同的数据集上进行:Caltech-101 数据集、军事数据集和 MTARSI 数据集。此外,研究还将实验结果与过去三年发布的同类出版物进行了比较。研究结果表明,所提出的方法非常有效,在 Caltech-101 数据集上的 F1 分数达到 96%,在 Military 和 MTARSI 数据集上的 F1 分数达到 99%。
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来源期刊
International Journal of Computing and Digital Systems
International Journal of Computing and Digital Systems Business, Management and Accounting-Management of Technology and Innovation
CiteScore
1.70
自引率
0.00%
发文量
111
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