{"title":"被动声纳目标分类的神经网络","authors":"R. Baran, J. Coughlin","doi":"10.1145/106965.106969","DOIUrl":null,"url":null,"abstract":"This concerns the design, tratilng, test and evaluation of a feed-forward neural network for classifying acoustic signals emitted by ships in transit by an omnidirectional hydrophore. Relatively noisy surface ships, moving rapidly at medium to long range, emit signals which superficially resemble those of quieter submarines, moving more slowly and closer to the listening device. The neural network approach is motivated by an obvious analogy to the sonar classifier of German and Sejnowski, who trained a neural network to classify active sonar returns from two undersea objects. The present problem can be solved by a similar network architecture, the outputs indicating which target type (if any) is present. The inputs represent the evolution of spectral densities for each of a number of time lags. Yet the number of target types and encounter geometries is far greater than could possibly be covered in any representative way by a training set comprised of real world data, Thus the task is to connect the network to a high fidelity, model-based digital simulator and to show that, by training on the output of the simulator, the neural network can learn to pass realistic tests. Permission to copy without fee all or part of this material is gmrtted provided that the copies are not made or distributed for direct commercial advantage, the ACM copyright notice and the title of the pubtieation and its date appear, and notice is given that copying is by permission of the Association for Computing Mach~:ry. TOCOPY otherwise,or to republish requires a fee andlor spectilc perrms sion. This describes a neural network design-and-testing exercise based on a simplistic model that captures a few of the salient features of the problem.","PeriodicalId":359315,"journal":{"name":"conference on Analysis of Neural Network Applications","volume":"8 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"1991-05-29","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"13","resultStr":"{\"title\":\"A neural network for target classification using passive sonar\",\"authors\":\"R. Baran, J. Coughlin\",\"doi\":\"10.1145/106965.106969\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"This concerns the design, tratilng, test and evaluation of a feed-forward neural network for classifying acoustic signals emitted by ships in transit by an omnidirectional hydrophore. Relatively noisy surface ships, moving rapidly at medium to long range, emit signals which superficially resemble those of quieter submarines, moving more slowly and closer to the listening device. The neural network approach is motivated by an obvious analogy to the sonar classifier of German and Sejnowski, who trained a neural network to classify active sonar returns from two undersea objects. The present problem can be solved by a similar network architecture, the outputs indicating which target type (if any) is present. The inputs represent the evolution of spectral densities for each of a number of time lags. Yet the number of target types and encounter geometries is far greater than could possibly be covered in any representative way by a training set comprised of real world data, Thus the task is to connect the network to a high fidelity, model-based digital simulator and to show that, by training on the output of the simulator, the neural network can learn to pass realistic tests. Permission to copy without fee all or part of this material is gmrtted provided that the copies are not made or distributed for direct commercial advantage, the ACM copyright notice and the title of the pubtieation and its date appear, and notice is given that copying is by permission of the Association for Computing Mach~:ry. TOCOPY otherwise,or to republish requires a fee andlor spectilc perrms sion. 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引用次数: 13
摘要
本文研究了一种用于船舶全向水听器声信号分类的前馈神经网络的设计、跟踪、测试和评价。相对嘈杂的水面舰艇,在中远距离上快速移动,发出的信号表面上类似于更安静的潜艇,移动速度更慢,更靠近监听装置。神经网络方法的动机明显与German和Sejnowski的声纳分类器相似,他们训练了一个神经网络来对来自两个海底物体的主动声纳回波进行分类。当前的问题可以通过类似的网络体系结构来解决,输出表明存在哪个目标类型(如果有的话)。输入表示谱密度在多个时间滞后中的每一个的演变。然而,目标类型和遇到的几何形状的数量远远大于由现实世界数据组成的训练集可能以任何有代表性的方式覆盖的数量,因此,任务是将网络连接到高保真度,基于模型的数字模拟器,并表明,通过对模拟器输出的训练,神经网络可以学习通过现实测试。允许免费复制本材料的全部或部分,前提是这些副本不是为了直接的商业利益而制作或分发的,必须出现ACM版权声明、出版物的标题和出版日期,并注明复制是由计算机协会(Association for Computing Mach)许可的。否则,复制或重新发布需要付费和特定的许可。本文描述了一个基于简单模型的神经网络设计和测试练习,该模型捕获了问题的一些显著特征。
A neural network for target classification using passive sonar
This concerns the design, tratilng, test and evaluation of a feed-forward neural network for classifying acoustic signals emitted by ships in transit by an omnidirectional hydrophore. Relatively noisy surface ships, moving rapidly at medium to long range, emit signals which superficially resemble those of quieter submarines, moving more slowly and closer to the listening device. The neural network approach is motivated by an obvious analogy to the sonar classifier of German and Sejnowski, who trained a neural network to classify active sonar returns from two undersea objects. The present problem can be solved by a similar network architecture, the outputs indicating which target type (if any) is present. The inputs represent the evolution of spectral densities for each of a number of time lags. Yet the number of target types and encounter geometries is far greater than could possibly be covered in any representative way by a training set comprised of real world data, Thus the task is to connect the network to a high fidelity, model-based digital simulator and to show that, by training on the output of the simulator, the neural network can learn to pass realistic tests. Permission to copy without fee all or part of this material is gmrtted provided that the copies are not made or distributed for direct commercial advantage, the ACM copyright notice and the title of the pubtieation and its date appear, and notice is given that copying is by permission of the Association for Computing Mach~:ry. TOCOPY otherwise,or to republish requires a fee andlor spectilc perrms sion. This describes a neural network design-and-testing exercise based on a simplistic model that captures a few of the salient features of the problem.