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采用深度卷积神经网络方法的毫米波图像目标检测 被引量:2

Millimeter Wave Image Object Detection Using Deep Convolutional Neural Network Method
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摘要 通过收集大量的毫米波图像并建立相应的人体数据集进行检测,提出基于Faster R-CNN深度学习的方法检测隐藏于人体上的危险物品。该方法将区域建议网络和VGG19训练卷积神经网络模型相结合,构建了面向毫米波图像目标检测的深度卷积神经网络。为了提高毫米波图像的处理能力,采用Caffe深度学习框架在图形处理单元上进行训练和测试。实验结果证明了基于Faster R-CNN深度卷积神经网络的目标检测方法能有效检测毫米波图像中的危险物品,并且目标检测的平均准确率约94%,检测速度约为6 frame/s,对毫米波安检系统的智能化发展有着极其重要的参考价值。 Through collecting a large number of millimeter wave(MMW)images and establishing corresponding human data sets for detection,a method based on Faster R-CNN deep learning is proposed to detect concealed-object in a human body.The method combines the Region Proposal Network and the VGG19 training convolutional neural network model to construct a deep convolutional neural network for MMW image object detection.In order to improve the processing power of MMW images,the Caffe deep learning framework is used to train and test on the graphics processing unit.The experimental results show that the object detection method based on Faster R-CNN deep convolutional neural network can effectively detect dangerous objects in MMW images,the mean average precision of object detection is about 94%,and the detection speed is about 6 frame/s.It has extremely important reference value for the intelligent development of MMW security inspection system.
作者 陈国平 程秋菊 黄超意 周围 王璐 CHEN Guoping;CHENG Qiuju;HUANG Chaoyi;ZHOU Wei;WANG Lu(School of Optoelectronic Engineering,Chongqing University of Posts and Telecommunications,Chongqing 400065,China)
出处 《电讯技术》 北大核心 2019年第10期1121-1126,共6页 Telecommunication Engineering
基金 电子科学与技术重庆市大数据智能化类特色专业建设项目(ZNTSZY-4)
关键词 安全检查 毫米波图像 目标检测 深度卷积神经网络 FASTER R-CNN security inspection millimeter wave image object detection deep convolutional neural network Faster R-CNN
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  • 1Wenbin DOU. Researches on Millimeter Wave Imaging in SKL of MMW at Nanjing, China[J]. IEICE Transactions on Electronics, 2005, E88(7): 1451-1456.
  • 2Appleby. R., Wallace. H. B. Standoff Detection of Weapons and Contraband in the 100 GHz to 1 THz[J]. Region Antennas and Propagation. IEEE Transactions on, 2007, 55(11): 2944-2956.
  • 3Huguenin G. Richard. Millimeter Wave Concealed Weapon Detection and Through the Wall Imaging Systems[C]//SPIE, 2938: 152-159.
  • 4Huguenin G. Richard. A Millimeter-Wave Monolithic Load Switching Twist Reflector for Compact Imaging Cameras[C]//IEEE Transactions On Microwave Theory And Techniques, 1996, 44( 12): 2751-2757.
  • 5Thomas D. Williams and Nitin M. Vaidya. A Compact, Low-Cost, Passive MMW Security Scanner[C]//Proceedings of SPIE, 2005, 5789: 109-116.
  • 6R. Appleby. Passive Millimetre Wave Imaging and Security[C]//European Radar Conference Amsterdam, 2004: 275-278.
  • 7Neil A. Salmon, Roger Appleby, Sean Price. Scene Simulation Of Passive Millimetre Wave Images Of Plastic And Metal Objects[C]//SPIE, Infrared and Passive Millimeter-wave Imaging Systems: Design, Analysis, Modeling, and Testing, 2002, 4719: 397-401.
  • 8Rupert N. Anderton, Roger Appleby, John E. Beale, et al. Security Scanning at 94GHz[C]// SPIE Passive Millimeter-Wave Imaging Technology IX, 2006, 6211:62110C- 1-62110C-7.
  • 9Larry Yujiri, Hiroshi Agravante, Mike Biedenbende. Passive millimeter-wave camera[C]//SPIE, 1997, 3064: 15-22.
  • 10John A. Lovberg, Vladimir Kolinko, Robert Bible JR. Millimeter Wave Portal Imaging System[P]. US 2006/0017605 A1, Jan. 26, 2006.

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