Bearings-only target localization using total least squares

被引:228
作者
Dogançay, K [1 ]
机构
[1] Univ S Australia, Sch Elect & Informat Engn, Mawson Lakes, SA 5095, Australia
关键词
passive target localization; total least squares; constrained total least squares; maximum likelihood; estimation bias; tracking of constant-acceleration targets;
D O I
10.1016/j.sigpro.2005.03.007
中图分类号
TM [电工技术]; TN [电子技术、通信技术];
学科分类号
0808 ; 0809 ;
摘要
A total least-squares (TLS) algorithm is developed for two-dimensional location estimation of a stationary target by using only passive bearing measurements of the target. This problem has been studied extensively for several decades and has applications in electronic warfare, surveillance, passive sonar, interference location and suppression, and so forth. The nonlinear nature of the estimation problem poses a number of challenges related to complexity, convergence and estimation bias. After a critical review of the least-squares (LS) algorithms, a TLS estimation algorithm is developed based on the method of orthogonal vectors with the advantage of simplicity and reduced bias in the presence of bearing noise and observer position errors. A constrained TLS (CTLS) algorithm is also developed to improve the estimation accuracy, especially in the case of large measurement errors. Numerical examples are provided to compare the performance of the TLS and CTLS algorithms with the LS target localization algorithms, viz. the maximum likelihood estimator, Stansfield estimator and the method of orthogonal vectors. (C) 2005 Elsevier B.V. All rights reserved.
引用
收藏
页码:1695 / 1710
页数:16
相关论文
共 50 条
[41]   Parallel variable distribution for total least squares [J].
Guo, HB ;
Renaut, RA .
NUMERICAL LINEAR ALGEBRA WITH APPLICATIONS, 2005, 12 (09) :859-876
[42]   PHASE RETRIEVAL BY TENSOR TOTAL LEAST SQUARES [J].
Liu, Jiani ;
Zhu, Ce ;
Chen, Yang ;
Huang, Xiaolin ;
Liu, Yipeng .
2024 IEEE INTERNATIONAL CONFERENCE ON ACOUSTICS, SPEECH AND SIGNAL PROCESSING, ICASSP 2024, 2024, :6415-6419
[43]   Fitting helices to data by total least squares [J].
Nievergelt, Y .
COMPUTER AIDED GEOMETRIC DESIGN, 1997, 14 (08) :707-718
[44]   Total least squares solution of coordinate transformation [J].
Akyilmaz, O. .
SURVEY REVIEW, 2007, 39 (303) :68-80
[45]   Implicitly-weighted total least squares [J].
Park, Sungwoo ;
O'Leary, Dianne R. .
LINEAR ALGEBRA AND ITS APPLICATIONS, 2011, 435 (03) :560-577
[46]   On total least squares for quadratic form estimation [J].
Xing Fang ;
Jin Wang ;
Bofeng Li ;
Wenxian Zeng ;
Yibin Yao .
Studia Geophysica et Geodaetica, 2015, 59 :366-379
[47]   On total least-squares adjustment with constraints [J].
Schaffrin, B ;
Felus, YA .
Window on the Future of Geodesy, 2005, 128 :417-421
[48]   Total least squares and bootstrapping with applications in calibration [J].
Pesta, Michal .
STATISTICS, 2013, 47 (05) :966-991
[49]   Error in Variable FIR Typed System Identification Using Combining Total Least Mean Squares Estimation with Least Mean Squares Estimation [J].
Lim, Jun-Seok .
JOURNAL OF THE ACOUSTICAL SOCIETY OF KOREA, 2010, 29 (02) :97-101
[50]   A mixed weighted least squares and weighted total least squares adjustment method and its geodetic applications [J].
Zhou, Y. ;
Fang, X. .
SURVEY REVIEW, 2016, 48 (351) :421-429