DocumentCode
1373168
Title
Neural network optimization for multi-target multi-sensor passive tracking
Author
Shams, Soheil
Author_Institution
Hughes Res. Labs., Malibu, CA, USA
Volume
84
Issue
10
fYear
1996
fDate
10/1/1996 12:00:00 AM
Firstpage
1442
Lastpage
1457
Abstract
In this paper, we review a number of neural network approaches to combinatorial optimization. We specifically address the difficult problem of localizing multiple targets using only passive sensors, i.e. the sensors detect only bearing angles. Thus, target positions must be found through triangulation. An efficient solution to this problem has been of particular interest in air defence applications. In this paper, we describe two different neural network based approaches for solving this passive tracking problem. In particular, we demonstrate the use of a Hopfield neural network to preface the subsequent development of the multiple elastic modules (MEM) model. The MEM model is presented as a significant extension to current self-organizing neural networks. We describe the unique features of the MEM model, including nonhomogeneous adaptive temperature field for escaping from poor local optima, and locking and expectation features used for dealing with dynamic real-world problems. Applications of the MEM model to other areas including computer vision, are also briefly described
Keywords
Hopfield neural nets; optimisation; radar target recognition; radar tracking; self-organising feature maps; sensor fusion; surveillance; Hopfield neural network; adaptive temperature field; combinatorial optimization; computer vision; multi-sensor passive tracking; multi-target tracking; multiple elastic modules; passive sensors; self-organizing neural networks; sensor fusion; triangulation; Application software; Computer networks; Computer vision; Genetic algorithms; Hopfield neural networks; Lagrangian functions; Linear programming; Neural networks; Target tracking; Temperature;
fLanguage
English
Journal_Title
Proceedings of the IEEE
Publisher
ieee
ISSN
0018-9219
Type
jour
DOI
10.1109/5.537110
Filename
537110
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